source('../env.R')
Using GitHub PAT from the git credential store.
Skipping install of 'clootl' from a github remote, the SHA1 (1f190618) has not changed since last install.
  Use `force = TRUE` to force installation
community_data = read_csv(filename(COMMUNITY_OUTPUT_DIR, 'community_assembly_metrics_using_relative_abundance.csv'))
Rows: 308 Columns: 14── Column specification ────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────
Delimiter: ","
dbl (14): mntd_standard, mntd_normal, mntd_actual, mass_fdiv_standard, mass_fdiv_normal, mass_fdiv_actual, beak_width_fdiv_standard, beak_width_fdiv_normal, beak_width_fdiv...
ℹ Use `spec()` to retrieve the full column specification for this data.
ℹ Specify the column types or set `show_col_types = FALSE` to quiet this message.
head(community_data)
colnames(community_data)
 [1] "mntd_standard"            "mntd_normal"              "mntd_actual"              "mass_fdiv_standard"       "mass_fdiv_normal"         "mass_fdiv_actual"        
 [7] "beak_width_fdiv_standard" "beak_width_fdiv_normal"   "beak_width_fdiv_actual"   "hwi_fdiv_standard"        "hwi_fdiv_normal"          "hwi_fdiv_actual"         
[13] "city_id"                  "urban_pool_size"         
min(community_data$mntd_standard)
[1] -2.338219
max(community_data$mntd_standard)
[1] 2.34743
min(community_data$beak_width_fdiv_standard)
[1] -2.685152
max(community_data$beak_width_fdiv_standard)
[1] 1.931681
min(community_data$hwi_fdiv_standard)
[1] -2.254896
max(community_data$hwi_fdiv_standard)
[1] 2.315362
min(community_data$mass_fdiv_standard)
[1] -2.351968
max(community_data$mass_fdiv_standard)
[1] 2.114779
min(community_data$mntd_normal)
[1] 0
max(community_data$mntd_normal)
[1] 1
min(community_data$beak_width_fdiv_normal)
[1] 0
max(community_data$beak_width_fdiv_normal)
[1] 1
min(community_data$hwi_fdiv_normal)
[1] 0
max(community_data$hwi_fdiv_normal)
[1] 1
min(community_data$mass_fdiv_normal)
[1] 0
max(community_data$mass_fdiv_normal)
[1] 1

Join on realms

city_to_realm = read_csv(filename(CITY_DATA_OUTPUT_DIR, 'realms.csv'))
Rows: 337 Columns: 2── Column specification ────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────
Delimiter: ","
chr (1): core_realm
dbl (1): city_id
ℹ Use `spec()` to retrieve the full column specification for this data.
ℹ Specify the column types or set `show_col_types = FALSE` to quiet this message.
community_data_with_realm = left_join(community_data, city_to_realm)
Joining with `by = join_by(city_id)`

Cities as points

city_points = st_centroid(read_sf(filename(CITY_DATA_OUTPUT_DIR, 'city_selection.shp'))) %>% left_join(community_data_with_realm)
Warning: st_centroid assumes attributes are constant over geometriesWarning: st_centroid does not give correct centroids for longitude/latitude dataJoining with `by = join_by(city_id)`
city_points_coords = st_coordinates(city_points)
city_points$latitude = city_points_coords[,1]
city_points$longitude = city_points_coords[,2]
world_map = read_country_boundaries()

Load community data, and create long format version

communities = read_csv(filename(COMMUNITY_OUTPUT_DIR, 'communities_for_analysis.csv'))
Rows: 2428 Columns: 7── Column specification ────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────
Delimiter: ","
chr (5): city_name, ebird_species_name, seasonal, presence, origin
dbl (2): city_id, relative_abundance_proxy
ℹ Use `spec()` to retrieve the full column specification for this data.
ℹ Specify the column types or set `show_col_types = FALSE` to quiet this message.
communities
community_summary = communities %>% group_by(city_id) %>% summarise(regional_pool_size = n(), urban_pool_size = sum(relative_abundance_proxy > 0))
community_summary

Load trait data

traits = read_csv(filename(TAXONOMY_OUTPUT_DIR, 'traits_ebird.csv'))
Rows: 332 Columns: 10── Column specification ────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────
Delimiter: ","
chr (5): ebird_species_name, habitat, trophic_level, trophic_niche, primary_lifestyle
dbl (5): beak_width, hwi, mass, habitat_density, migration
ℹ Use `spec()` to retrieve the full column specification for this data.
ℹ Specify the column types or set `show_col_types = FALSE` to quiet this message.
head(traits)

Load spatial var

spatial_var = read_csv(filename(COMMUNITY_OUTPUT_DIR, 'spatial_var.csv')) %>% filter(city_id %in% community_summary$city_id)
Rows: 337 Columns: 3── Column specification ────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────
Delimiter: ","
dbl (3): city_id, NMDS1, NMDS2
ℹ Use `spec()` to retrieve the full column specification for this data.
ℹ Specify the column types or set `show_col_types = FALSE` to quiet this message.
spatial_var

Summary metrics by Realm

test_required_values = function(name, df) {
  cat(paste(
    test_value_wilcox(paste(name, 'Std: MNTD'), df$mntd_standard),
    test_value_wilcox(paste(name, 'Std: Beak Width FDiv'), df$beak_width_fdiv_standard),
    test_value_wilcox(paste(name, 'Std: HWI FDiv'), df$hwi_fdiv_standard),
    test_value_wilcox(paste(name, 'Std: Mass FDiv'), df$mass_fdiv_standard),
    
    test_value_wilcox(paste(name, 'Norm: MNTD'), df$mntd_normal, mu = 0.5),
    test_value_wilcox(paste(name, 'Norm: Beak Width FDiv'), df$beak_width_fdiv_normal, mu = 0.5),
    test_value_wilcox(paste(name, 'Norm: HWI FDiv'), df$hwi_fdiv_normal, mu = 0.5),
    test_value_wilcox(paste(name, 'Norm: Mass FDiv'), df$mass_fdiv_normal, mu = 0.5),
    paste('N', nrow(df)),
    sep = "\n"))
}
test_required_values('Global', community_data_with_realm)
Global Std: MNTD median -0.36 ***
Global Std: Beak Width FDiv median 0.03 
Global Std: HWI FDiv median 0.39 **
Global Std: Mass FDiv median 0.29 ***
Global Norm: MNTD median 0.38 ***
Global Norm: Beak Width FDiv median 0.59 ***
Global Norm: HWI FDiv median 0.64 ***
Global Norm: Mass FDiv median 0.64 ***
N 308
unique(community_data_with_realm$core_realm)
[1] "Nearctic"    "Neotropic"   "Palearctic"  "Afrotropic"  "Indomalayan" "Australasia"
test_required_values('Nearctic', community_data_with_realm[community_data_with_realm$core_realm == 'Nearctic',])
Warning: cannot compute exact p-value with tiesWarning: cannot compute exact p-value with tiesWarning: cannot compute exact p-value with tiesWarning: cannot compute exact p-value with ties
Nearctic Std: MNTD median 0.67 *
Nearctic Std: Beak Width FDiv median 0.29 
Nearctic Std: HWI FDiv median -0.8 ***
Nearctic Std: Mass FDiv median -0.26 
Nearctic Norm: MNTD median 0.75 
Nearctic Norm: Beak Width FDiv median 0.62 
Nearctic Norm: HWI FDiv median 0.23 **
Nearctic Norm: Mass FDiv median 0.48 
N 46
test_required_values('Neotropic', community_data_with_realm[community_data_with_realm$core_realm == 'Neotropic',])
Neotropic Std: MNTD median 0.03 
Neotropic Std: Beak Width FDiv median -0.44 ***
Neotropic Std: HWI FDiv median -0.31 
Neotropic Std: Mass FDiv median 0.33 *
Neotropic Norm: MNTD median 0.45 
Neotropic Norm: Beak Width FDiv median 0.46 
Neotropic Norm: HWI FDiv median 0.5 
Neotropic Norm: Mass FDiv median 0.65 ***
N 64
test_required_values('Palearctic', community_data_with_realm[community_data_with_realm$core_realm == 'Palearctic',])
Palearctic Std: MNTD median 0.13 
Palearctic Std: Beak Width FDiv median 1.25 ***
Palearctic Std: HWI FDiv median -0.39 
Palearctic Std: Mass FDiv median 0.01 
Palearctic Norm: MNTD median 0.57 *
Palearctic Norm: Beak Width FDiv median 0.93 ***
Palearctic Norm: HWI FDiv median 0.38 
Palearctic Norm: Mass FDiv median 0.55 
N 72
test_required_values('Afrotropic', community_data_with_realm[community_data_with_realm$core_realm == 'Afrotropic',])
Afrotropic Std: MNTD median -1.27 *
Afrotropic Std: Beak Width FDiv median -0.5 
Afrotropic Std: HWI FDiv median 0.17 
Afrotropic Std: Mass FDiv median -0.95 
Afrotropic Norm: MNTD median 0.07 *
Afrotropic Norm: Beak Width FDiv median 0.42 
Afrotropic Norm: HWI FDiv median 0.54 
Afrotropic Norm: Mass FDiv median 0.34 
N 9
test_required_values('Indomalayan', community_data_with_realm[community_data_with_realm$core_realm == 'Indomalayan',])
Indomalayan Std: MNTD median -0.63 ***
Indomalayan Std: Beak Width FDiv median -0.7 ***
Indomalayan Std: HWI FDiv median 1.11 ***
Indomalayan Std: Mass FDiv median 0.84 ***
Indomalayan Norm: MNTD median 0.21 ***
Indomalayan Norm: Beak Width FDiv median 0.46 
Indomalayan Norm: HWI FDiv median 0.88 ***
Indomalayan Norm: Mass FDiv median 0.8 ***
N 111
test_required_values('Australasia', community_data_with_realm[community_data_with_realm$core_realm == 'Australasia',])
Australasia Std: MNTD median -1.39 
Australasia Std: Beak Width FDiv median -0.74 
Australasia Std: HWI FDiv median 0.78 
Australasia Std: Mass FDiv median -0.94 
Australasia Norm: MNTD median 0.09 
Australasia Norm: Beak Width FDiv median 0.46 
Australasia Norm: HWI FDiv median 0.79 
Australasia Norm: Mass FDiv median 0.55 
N 6

How significant are those differences:

print('Standard')
[1] "Standard"
kruskal.test(mntd_standard~core_realm, data = community_data_with_realm)

    Kruskal-Wallis rank sum test

data:  mntd_standard by core_realm
Kruskal-Wallis chi-squared = 102.11, df = 5, p-value < 0.00000000000000022
pairwise.wilcox.test(community_data_with_realm$mntd_standard, community_data_with_realm$core_realm)

    Pairwise comparisons using Wilcoxon rank sum exact test 

data:  community_data_with_realm$mntd_standard and community_data_with_realm$core_realm 

            Afrotropic      Australasia Indomalayan     Nearctic Neotropic
Australasia 1.00000         -           -               -        -        
Indomalayan 0.00489         0.01024     -               -        -        
Nearctic    0.0000053220919 0.00018     0.0000000141740 -        -        
Neotropic   0.00018         0.00170     0.0000000083499 0.21142  -        
Palearctic  0.00018         0.00170     0.0000000000087 0.04492  1.00000  

P value adjustment method: holm 
print('Normal')
[1] "Normal"
kruskal.test(mntd_normal~core_realm, data = community_data_with_realm)

    Kruskal-Wallis rank sum test

data:  mntd_normal by core_realm
Kruskal-Wallis chi-squared = 122.2, df = 5, p-value < 0.00000000000000022
pairwise.wilcox.test(community_data_with_realm$mntd_normal, community_data_with_realm$core_realm)
Warning: cannot compute exact p-value with tiesWarning: cannot compute exact p-value with ties

    Pairwise comparisons using Wilcoxon rank sum exact test 

data:  community_data_with_realm$mntd_normal and community_data_with_realm$core_realm 

            Afrotropic      Australasia Indomalayan          Nearctic Neotropic
Australasia 0.27213         -           -                    -        -        
Indomalayan 0.00013         0.00267     -                    -        -        
Nearctic    0.00276         0.01815     0.0000009331952      -        -        
Neotropic   0.0000199762545 0.00053     0.0000000000089      0.01638  -        
Palearctic  0.0000540321246 0.00147     < 0.0000000000000002 0.10733  0.00947  

P value adjustment method: holm 
print('Standard')
[1] "Standard"
kruskal.test(beak_width_fdiv_standard~core_realm, data = community_data_with_realm)

    Kruskal-Wallis rank sum test

data:  beak_width_fdiv_standard by core_realm
Kruskal-Wallis chi-squared = 107.95, df = 5, p-value < 0.00000000000000022
pairwise.wilcox.test(community_data_with_realm$beak_width_fdiv_standard, community_data_with_realm$core_realm)

    Pairwise comparisons using Wilcoxon rank sum exact test 

data:  community_data_with_realm$beak_width_fdiv_standard and community_data_with_realm$core_realm 

            Afrotropic Australasia Indomalayan          Nearctic          Neotropic        
Australasia 1.00000    -           -                    -                 -                
Indomalayan 1.00000    1.00000     -                    -                 -                
Nearctic    0.11361    1.00000     0.00123              -                 -                
Neotropic   1.00000    1.00000     1.00000              0.00388           -                
Palearctic  0.00026    0.13449     < 0.0000000000000002 0.000001461233727 0.000000000000018

P value adjustment method: holm 
print('Normal')
[1] "Normal"
kruskal.test(beak_width_fdiv_standard~core_realm, data = community_data_with_realm)

    Kruskal-Wallis rank sum test

data:  beak_width_fdiv_standard by core_realm
Kruskal-Wallis chi-squared = 107.95, df = 5, p-value < 0.00000000000000022
pairwise.wilcox.test(community_data_with_realm$beak_width_fdiv_standard, community_data_with_realm$core_realm)

    Pairwise comparisons using Wilcoxon rank sum exact test 

data:  community_data_with_realm$beak_width_fdiv_standard and community_data_with_realm$core_realm 

            Afrotropic Australasia Indomalayan          Nearctic          Neotropic        
Australasia 1.00000    -           -                    -                 -                
Indomalayan 1.00000    1.00000     -                    -                 -                
Nearctic    0.11361    1.00000     0.00123              -                 -                
Neotropic   1.00000    1.00000     1.00000              0.00388           -                
Palearctic  0.00026    0.13449     < 0.0000000000000002 0.000001461233727 0.000000000000018

P value adjustment method: holm 
print('Standard')
[1] "Standard"
kruskal.test(hwi_fdiv_standard~core_realm, data = community_data_with_realm)

    Kruskal-Wallis rank sum test

data:  hwi_fdiv_standard by core_realm
Kruskal-Wallis chi-squared = 115.62, df = 5, p-value < 0.00000000000000022
pairwise.wilcox.test(community_data_with_realm$hwi_fdiv_standard, community_data_with_realm$core_realm)

    Pairwise comparisons using Wilcoxon rank sum exact test 

data:  community_data_with_realm$hwi_fdiv_standard and community_data_with_realm$core_realm 

            Afrotropic Australasia Indomalayan         Nearctic Neotropic
Australasia 1.0000     -           -                   -        -        
Indomalayan 0.1471     1.0000      -                   -        -        
Nearctic    1.0000     0.0038      0.00000000000000043 -        -        
Neotropic   1.0000     0.0680      0.00000000000000197 0.0925   -        
Palearctic  1.0000     0.3068      0.00000000003605628 0.2673   1.0000   

P value adjustment method: holm 
print('Normal')
[1] "Normal"
kruskal.test(hwi_fdiv_normal~core_realm, data = community_data_with_realm)

    Kruskal-Wallis rank sum test

data:  hwi_fdiv_normal by core_realm
Kruskal-Wallis chi-squared = 104.9, df = 5, p-value < 0.00000000000000022
pairwise.wilcox.test(community_data_with_realm$hwi_fdiv_normal, community_data_with_realm$core_realm)
Warning: cannot compute exact p-value with tiesWarning: cannot compute exact p-value with ties

    Pairwise comparisons using Wilcoxon rank sum exact test 

data:  community_data_with_realm$hwi_fdiv_normal and community_data_with_realm$core_realm 

            Afrotropic Australasia Indomalayan        Nearctic           Neotropic
Australasia 0.7233     -           -                  -                  -        
Indomalayan 0.1144     1.0000      -                  -                  -        
Nearctic    0.0881     0.0193      0.0000000000006844 -                  -        
Neotropic   1.0000     0.0204      0.0000000000000014 0.0000964104748761 -        
Palearctic  0.9971     0.2748      0.0000000522948450 0.0073             0.9953   

P value adjustment method: holm 
print('Standard')
[1] "Standard"
kruskal.test(mass_fdiv_standard~core_realm, data = community_data_with_realm)

    Kruskal-Wallis rank sum test

data:  mass_fdiv_standard by core_realm
Kruskal-Wallis chi-squared = 48.784, df = 5, p-value = 0.000000002457
pairwise.wilcox.test(community_data_with_realm$mass_fdiv_standard, community_data_with_realm$core_realm)

    Pairwise comparisons using Wilcoxon rank sum exact test 

data:  community_data_with_realm$mass_fdiv_standard and community_data_with_realm$core_realm 

            Afrotropic Australasia Indomalayan Nearctic Neotropic
Australasia 1.0000     -           -           -        -        
Indomalayan 0.0033     0.1401      -           -        -        
Nearctic    0.1401     1.0000      0.0023      -        -        
Neotropic   0.0158     0.2989      1.0000      0.1401   -        
Palearctic  0.0873     1.0000      0.00000002  1.0000   0.0658   

P value adjustment method: holm 
print('Normal')
[1] "Normal"
kruskal.test(mass_fdiv_normal~core_realm, data = community_data_with_realm)

    Kruskal-Wallis rank sum test

data:  mass_fdiv_normal by core_realm
Kruskal-Wallis chi-squared = 58.138, df = 5, p-value = 0.00000000002946
pairwise.wilcox.test(community_data_with_realm$mass_fdiv_normal, community_data_with_realm$core_realm)
Warning: cannot compute exact p-value with tiesWarning: cannot compute exact p-value with ties

    Pairwise comparisons using Wilcoxon rank sum exact test 

data:  community_data_with_realm$mass_fdiv_normal and community_data_with_realm$core_realm 

            Afrotropic Australasia Indomalayan     Nearctic Neotropic
Australasia 1.000      -           -               -        -        
Indomalayan 0.014      0.075       -               -        -        
Nearctic    1.000      1.000       0.016           -        -        
Neotropic   0.126      1.000       0.014           0.958    -        
Palearctic  0.824      1.000       0.0000000000008 1.000    0.014    

P value adjustment method: holm 

What families exist in which realms?

communities %>% 
  left_join(city_to_realm) %>% 
  mutate(family = gsub( " .*$", "", ebird_species_name)) %>%
  dplyr::select(family, core_realm) %>%
  distinct() %>%
  arrange(core_realm)
Joining with `by = join_by(city_id)`

Total urban families

communities %>% 
  mutate(family = gsub( " .*$", "", ebird_species_name)) %>%
  dplyr::select(family) %>%
  distinct() %>%
  arrange()

of which urban

communities %>% 
  filter(relative_abundance_proxy > 0) %>%
  mutate(family = gsub( " .*$", "", ebird_species_name)) %>%
  dplyr::select(family) %>%
  distinct() %>%
  arrange()

Summary metrics by introduced species

communities = read_csv(filename(COMMUNITY_OUTPUT_DIR, 'communities_for_analysis.csv'))
Rows: 2428 Columns: 7── Column specification ────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────
Delimiter: ","
chr (5): city_name, ebird_species_name, seasonal, presence, origin
dbl (2): city_id, relative_abundance_proxy
ℹ Use `spec()` to retrieve the full column specification for this data.
ℹ Specify the column types or set `show_col_types = FALSE` to quiet this message.
city_introduced_species = communities %>% group_by(city_id) %>% summarise(number_of_species = n()) %>% left_join(
  communities %>% group_by(city_id) %>% filter(origin == 'Introduced') %>% summarise(number_of_introduced_species = n())
) %>% replace_na(list(number_of_introduced_species = 0))
Joining with `by = join_by(city_id)`
community_data_with_introductions = left_join(community_data, city_introduced_species)
Joining with `by = join_by(city_id)`
community_data_with_introductions$has_introduced_species = community_data_with_introductions$number_of_introduced_species > 0
community_data_with_introductions
communities %>% 
  filter(origin == 'Introduced') %>%
  dplyr::select(ebird_species_name) %>%
  group_by(ebird_species_name) %>%
  summarise(total_cities = n()) %>%
  arrange(desc(total_cities))
community_data_with_introductions[,c('mntd_standard', 'has_introduced_species')]
community_data_with_introductions %>% group_by(has_introduced_species) %>% summarise(
  total_cities = n(), 
  
  mean_mntd_std = mean(mntd_standard, na.rm = T),
  median_mntd_std = median(mntd_standard, na.rm = T),
  sd_mntd_std = sd(mntd_standard, na.rm = T),
  
  mean_mass_fdiv_std = mean(mass_fdiv_standard, na.rm = T),
  median_mass_fdiv_std = median(mass_fdiv_standard, na.rm = T),
  sd_mass_fdiv_std = sd(mass_fdiv_standard, na.rm = T),
  
  mean_gape_width_fdiv_std = mean(beak_width_fdiv_standard, na.rm = T),
  median_gape_width_fdiv_std = median(beak_width_fdiv_standard, na.rm = T),
  sd_gape_width_fdiv_std = sd(beak_width_fdiv_standard, na.rm = T),
  
  mean_handwing_index_fdiv_std = mean(hwi_fdiv_standard, na.rm = T),
  median_handwing_index_fdiv_std = median(hwi_fdiv_standard, na.rm = T),
  sd_handwing_index_fdiv_std = sd(hwi_fdiv_standard, na.rm = T)
)

MNTD

ggplot(community_data_with_introductions, aes(x = has_introduced_species, y = mntd_standard)) + geom_boxplot()

ggplot(community_data_with_introductions, aes(x = has_introduced_species, y = mntd_normal)) + geom_boxplot()

wilcox.test(mntd_standard ~ has_introduced_species, community_data_with_introductions, na.action = 'na.omit')

    Wilcoxon rank sum test with continuity correction

data:  mntd_standard by has_introduced_species
W = 7922, p-value = 0.00001262
alternative hypothesis: true location shift is not equal to 0

There is a significant difference between the response of cities with introduced species (0.53±0.27) and those without (0.47±0.19) (p-value = 0.02).

wilcox.test(mntd_normal ~ has_introduced_species, community_data_with_introductions, na.action = 'na.omit')

    Wilcoxon rank sum test with continuity correction

data:  mntd_normal by has_introduced_species
W = 7376.5, p-value = 0.0000003705
alternative hypothesis: true location shift is not equal to 0

Mass FDiv

ggplot(community_data_with_introductions, aes(x = has_introduced_species, y = mass_fdiv_standard)) + geom_boxplot()

ggplot(community_data_with_introductions, aes(x = has_introduced_species, y = mass_fdiv_normal)) + geom_boxplot()

wilcox.test(mass_fdiv_standard ~ has_introduced_species, community_data_with_introductions, na.action = 'na.omit')

    Wilcoxon rank sum test with continuity correction

data:  mass_fdiv_standard by has_introduced_species
W = 15009, p-value = 0.0000007626
alternative hypothesis: true location shift is not equal to 0

There is a significant difference between the response of cities with introduced species (0.57±0.27) and those without (0.73±0.24) (p < 0.0001)

wilcox.test(mass_fdiv_normal ~ has_introduced_species, community_data_with_introductions, na.action = 'na.omit')

    Wilcoxon rank sum test with continuity correction

data:  mass_fdiv_normal by has_introduced_species
W = 15204, p-value = 0.0000001989
alternative hypothesis: true location shift is not equal to 0

Beak Gape FDiv

ggplot(community_data_with_introductions, aes(x = has_introduced_species, y = beak_width_fdiv_standard)) + geom_boxplot()

ggplot(community_data_with_introductions, aes(x = has_introduced_species, y = beak_width_fdiv_normal)) + geom_boxplot()

wilcox.test(beak_width_fdiv_standard ~ has_introduced_species, community_data_with_introductions, na.action = 'na.omit')

    Wilcoxon rank sum test with continuity correction

data:  beak_width_fdiv_standard by has_introduced_species
W = 8659, p-value = 0.0006786
alternative hypothesis: true location shift is not equal to 0

There is NOT a significant difference between the response of cities with introduced species (0.61±0.30) and those without (0.56±0.27)

wilcox.test(beak_width_fdiv_normal ~ has_introduced_species, community_data_with_introductions, na.action = 'na.omit')

    Wilcoxon rank sum test with continuity correction

data:  beak_width_fdiv_normal by has_introduced_species
W = 9829.5, p-value = 0.06288
alternative hypothesis: true location shift is not equal to 0

HWI FDiv

ggplot(community_data_with_introductions, aes(x = has_introduced_species, y = hwi_fdiv_standard)) + geom_boxplot()

ggplot(community_data_with_introductions, aes(x = has_introduced_species, y = hwi_fdiv_normal)) + geom_boxplot()

wilcox.test(hwi_fdiv_standard ~ has_introduced_species, community_data_with_introductions, na.action = 'na.omit')

    Wilcoxon rank sum test with continuity correction

data:  hwi_fdiv_standard by has_introduced_species
W = 17622, p-value < 0.00000000000000022
alternative hypothesis: true location shift is not equal to 0

There is a significant difference between the response of cities with introduced species (0.49±0.30) and those without (0.79±0.21) (p < 0.0001)

wilcox.test(hwi_fdiv_normal ~ has_introduced_species, community_data_with_introductions, na.action = 'na.omit')

    Wilcoxon rank sum test with continuity correction

data:  hwi_fdiv_normal by has_introduced_species
W = 17673, p-value < 0.00000000000000022
alternative hypothesis: true location shift is not equal to 0

What proportion of cities in each realm have introduced species

community_data_with_introductions %>% left_join(city_to_realm) %>%
  group_by(core_realm) %>%
  summarise(
    total_cities = n(), 
    total_cities_with_introduced = sum(has_introduced_species), 
    total_cities_without_introduced = n() - sum(has_introduced_species)) %>%
  arrange(core_realm)
Joining with `by = join_by(city_id)`

Are any introduced species not also present in a city?

communities %>% 
  filter(origin == 'Introduced') %>% 
  filter(relative_abundance_proxy < 0.1)

What’s the average relative abundance of introduced species compared to native

communities %>% 
  group_by(origin) %>% 
  summarise(average_relative_abundance = mean(relative_abundance_proxy))
communities %>% 
  group_by(origin) %>% 
  filter(relative_abundance_proxy > 0) %>%
  summarise(average_relative_abundance = mean(relative_abundance_proxy))
communities %>% 
  group_by(origin) %>% 
  summarise(average_relative_abundance = mean(relative_abundance_proxy))

Create analysis data frame for modelling

geography = read_csv(filename(CITY_DATA_OUTPUT_DIR, 'geography.csv'))
Rows: 342 Columns: 26── Column specification ────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────
Delimiter: ","
dbl (26): city_id, city_avg_ndvi, city_avg_elevation, city_avg_temp, city_avg_min_monthly_temp, city_avg_max_monthly_temp, city_avg_monthly_temp, city_avg_rainfall, city_av...
ℹ Use `spec()` to retrieve the full column specification for this data.
ℹ Specify the column types or set `show_col_types = FALSE` to quiet this message.
names(geography)
 [1] "city_id"                       "city_avg_ndvi"                 "city_avg_elevation"            "city_avg_temp"                 "city_avg_min_monthly_temp"    
 [6] "city_avg_max_monthly_temp"     "city_avg_monthly_temp"         "city_avg_rainfall"             "city_avg_max_monthly_rainfall" "city_avg_min_monthly_rainfall"
[11] "city_avg_soil_moisture"        "city_max_elev"                 "city_min_elev"                 "city_elev_range"               "region_20km_avg_ndvi"         
[16] "region_20km_avg_elevation"     "region_20km_avg_soil_moisture" "region_20km_max_elev"          "region_20km_min_elev"          "region_20km_elev_range"       
[21] "region_50km_avg_ndvi"          "region_50km_avg_elevation"     "region_50km_avg_soil_moisture" "region_50km_max_elev"          "region_50km_min_elev"         
[26] "region_50km_elev_range"       
analysis_data = community_data_with_realm[,c('city_id', 
       'mntd_standard', 'mass_fdiv_standard', 'beak_width_fdiv_standard', 'hwi_fdiv_standard',
       'mntd_normal', 'mass_fdiv_normal', 'beak_width_fdiv_normal', 'hwi_fdiv_normal',
       'core_realm')] %>% 
  left_join(city_points[,c('city_id', 'latitude', 'longitude')]) %>%
  left_join(community_data_with_introductions[,c('city_id', 'has_introduced_species')]) %>%
  left_join(geography) %>%
  left_join(spatial_var)
Joining with `by = join_by(city_id)`Joining with `by = join_by(city_id)`Joining with `by = join_by(city_id)`Joining with `by = join_by(city_id)`
analysis_data$abs_latitude = abs(analysis_data$latitude)
analysis_data$core_realm = factor(analysis_data$core_realm, levels = c('Palearctic', 'Nearctic', 'Neotropic', 'Afrotropic', 'Indomalayan', 'Australasia', 'Oceania'))
analysis_data$has_introduced_species = factor(analysis_data$has_introduced_species, level = c('FALSE', 'TRUE'), labels = c('No introduced species', 'Introduced species'))
model_data = function(df, dependant_var) {
  df[,c(dependant_var, 'core_realm', 'abs_latitude', 'longitude', 'has_introduced_species', 'city_avg_ndvi', 'city_avg_elevation', 'city_avg_temp', 'city_avg_min_monthly_temp', 'city_avg_max_monthly_temp', 'city_avg_monthly_temp', 'city_avg_rainfall', 'city_avg_max_monthly_rainfall', 'city_avg_min_monthly_rainfall', 'city_avg_soil_moisture', 'city_max_elev', 'city_min_elev', 'city_elev_range', 'region_20km_avg_ndvi', 'region_20km_avg_elevation', 'region_20km_avg_soil_moisture', 'region_20km_max_elev', 'region_20km_min_elev', 'region_20km_elev_range', 'region_50km_avg_ndvi', 'region_50km_avg_elevation', 'region_50km_avg_soil_moisture', 'region_50km_max_elev', 'region_50km_min_elev', 'region_50km_elev_range')]
}
model_data(analysis_data, 'mntd_standard')
model_data(analysis_data, 'mntd_normal')
names(analysis_data)
 [1] "city_id"                       "mntd_standard"                 "mass_fdiv_standard"            "beak_width_fdiv_standard"      "hwi_fdiv_standard"            
 [6] "mntd_normal"                   "mass_fdiv_normal"              "beak_width_fdiv_normal"        "hwi_fdiv_normal"               "core_realm"                   
[11] "latitude"                      "longitude"                     "geometry"                      "has_introduced_species"        "city_avg_ndvi"                
[16] "city_avg_elevation"            "city_avg_temp"                 "city_avg_min_monthly_temp"     "city_avg_max_monthly_temp"     "city_avg_monthly_temp"        
[21] "city_avg_rainfall"             "city_avg_max_monthly_rainfall" "city_avg_min_monthly_rainfall" "city_avg_soil_moisture"        "city_max_elev"                
[26] "city_min_elev"                 "city_elev_range"               "region_20km_avg_ndvi"          "region_20km_avg_elevation"     "region_20km_avg_soil_moisture"
[31] "region_20km_max_elev"          "region_20km_min_elev"          "region_20km_elev_range"        "region_50km_avg_ndvi"          "region_50km_avg_elevation"    
[36] "region_50km_avg_soil_moisture" "region_50km_max_elev"          "region_50km_min_elev"          "region_50km_elev_range"        "NMDS1"                        
[41] "NMDS2"                         "abs_latitude"                 

NMDS Spatial Helpers

analysis_data_nmds_coords = analysis_data[,c('NMDS1', 'NMDS2')]
coordinates(analysis_data_nmds_coords)  = ~ NMDS1 + NMDS2

analysis_data_nmds_nearneigh <- knearneigh(analysis_data_nmds_coords)
Warning: knearneigh: identical points foundWarning: knearneigh: kd_tree not available for identical points
analysis_data_nmds_neighbours <- knn2nb(analysis_data_nmds_nearneigh)
Warning: neighbour object has 76 sub-graphs

Polygons around realms in NMDS plot

cities_to_realms_nmds = read_csv(filename(CITY_DATA_OUTPUT_DIR, 'realms.csv')) %>% left_join(analysis_data) %>% filter(!is.na(NMDS1))
Rows: 337 Columns: 2── Column specification ────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────
Delimiter: ","
chr (1): core_realm
dbl (1): city_id
ℹ Use `spec()` to retrieve the full column specification for this data.
ℹ Specify the column types or set `show_col_types = FALSE` to quiet this message.Joining with `by = join_by(city_id, core_realm)`
unique(cities_to_realms_nmds$core_realm)
[1] "Nearctic"    "Neotropic"   "Palearctic"  "Afrotropic"  "Indomalayan" "Australasia"
realm_nmds_neartic_polygon = cities_to_realms_nmds %>% filter(core_realm == 'Nearctic') %>% slice(chull(NMDS1, NMDS2))
realm_nmds_neotropic_polygon = cities_to_realms_nmds %>% filter(core_realm == 'Neotropic') %>% slice(chull(NMDS1, NMDS2))
realm_nmds_palearctic_polygon = cities_to_realms_nmds %>% filter(core_realm == 'Palearctic') %>% slice(chull(NMDS1, NMDS2))
realm_nmds_afrotropic_polygon = cities_to_realms_nmds %>% filter(core_realm == 'Afrotropic') %>% slice(chull(NMDS1, NMDS2))
realm_nmds_indomalayan_polygon = cities_to_realms_nmds %>% filter(core_realm == 'Indomalayan') %>% slice(chull(NMDS1, NMDS2))
realm_nmds_australasia_polygon = cities_to_realms_nmds %>% filter(core_realm == 'Australasia') %>% slice(chull(NMDS1, NMDS2))

polygon_line_type = 'dashed'
polygon_linewidth = 0.4

with_realms_nmds = function(g) {
  g + 
    geom_polygon(data = realm_nmds_neartic_polygon, linewidth = polygon_linewidth, linetype = polygon_line_type, alpha = 0) +
    geom_polygon(data = realm_nmds_neotropic_polygon, linewidth = polygon_linewidth, linetype = polygon_line_type, alpha = 0) +
    geom_polygon(data = realm_nmds_palearctic_polygon, linewidth = polygon_linewidth, linetype = polygon_line_type, alpha = 0) +
    geom_polygon(data = realm_nmds_afrotropic_polygon, linewidth = polygon_linewidth, linetype = polygon_line_type, alpha = 0) +
    geom_polygon(data = realm_nmds_indomalayan_polygon, linewidth = polygon_linewidth, linetype = polygon_line_type, alpha = 0) +
    geom_polygon(data = realm_nmds_australasia_polygon, linewidth = polygon_linewidth, linetype = polygon_line_type, alpha = 0)
}

Lat Long Spatial Helpers

analysis_data_latlong_coords = analysis_data[,c('longitude', 'latitude')]
coordinates(analysis_data_latlong_coords)  = ~ longitude + latitude

analysis_data_coords_nearneigh <- knearneigh(analysis_data_latlong_coords, longlat = TRUE)
analysis_data_neighbours <- knn2nb(analysis_data_coords_nearneigh)
Warning: neighbour object has 97 sub-graphs

Polygons around realms in lat long plot

cities_to_realms_latlong = read_csv(filename(CITY_DATA_OUTPUT_DIR, 'realms.csv')) %>% left_join(analysis_data) %>% filter(!is.na(latitude))
Rows: 337 Columns: 2── Column specification ────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────────
Delimiter: ","
chr (1): core_realm
dbl (1): city_id
ℹ Use `spec()` to retrieve the full column specification for this data.
ℹ Specify the column types or set `show_col_types = FALSE` to quiet this message.Joining with `by = join_by(city_id, core_realm)`
unique(cities_to_realms_latlong$core_realm)
[1] "Nearctic"    "Neotropic"   "Palearctic"  "Afrotropic"  "Indomalayan" "Australasia"
realm_latlong_neartic_polygon = cities_to_realms_latlong %>% filter(core_realm == 'Nearctic') %>% slice(chull(latitude, longitude))
realm_latlong_neotropic_polygon = cities_to_realms_latlong %>% filter(core_realm == 'Neotropic') %>% slice(chull(latitude, longitude))
realm_latlong_palearctic_polygon = cities_to_realms_latlong %>% filter(core_realm == 'Palearctic') %>% slice(chull(latitude, longitude))
realm_latlong_afrotropic_polygon = cities_to_realms_latlong %>% filter(core_realm == 'Afrotropic') %>% slice(chull(latitude, longitude))
realm_latlong_indomalayan_polygon = cities_to_realms_latlong %>% filter(core_realm == 'Indomalayan') %>% slice(chull(latitude, longitude))
realm_latlong_australasia_polygon = cities_to_realms_latlong %>% filter(core_realm == 'Australasia') %>% slice(chull(latitude, longitude))

with_realms_latlong = function(g) {
  g + 
    geom_polygon(data = realm_latlong_neartic_polygon, linewidth = polygon_linewidth, linetype = polygon_line_type, alpha = 0) +
    geom_polygon(data = realm_latlong_neotropic_polygon, linewidth = polygon_linewidth, linetype = polygon_line_type, alpha = 0) +
    geom_polygon(data = realm_latlong_palearctic_polygon, linewidth = polygon_linewidth, linetype = polygon_line_type, alpha = 0) +
    geom_polygon(data = realm_latlong_afrotropic_polygon, linewidth = polygon_linewidth, linetype = polygon_line_type, alpha = 0) +
    geom_polygon(data = realm_latlong_indomalayan_polygon, linewidth = polygon_linewidth, linetype = polygon_line_type, alpha = 0) +
    geom_polygon(data = realm_latlong_australasia_polygon, linewidth = polygon_linewidth, linetype = polygon_line_type, alpha = 0)
}

Check for spatial autocorrelation

MNTD

Lat/Long

with_realms_latlong(ggplot(analysis_data, aes(x = latitude, y = longitude, colour = mntd_standard)) + geom_point() + standardised_colours_scale + labs(colour = "Standardised response"))

moran.test(analysis_data$mntd_standard, nb2listw(analysis_data_neighbours))

    Moran I test under randomisation

data:  analysis_data$mntd_standard  
weights: nb2listw(analysis_data_neighbours)    

Moran I statistic standard deviate = 7.343, p-value = 0.0000000000001044
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.529792986      -0.003257329       0.005269694 
with_realms_latlong(ggplot(analysis_data, aes(x = latitude, y = longitude, colour = mntd_normal)) + geom_point() + normalised_colours_scale + labs(colour = "Normalised response"))

moran.test(analysis_data$mntd_normal, nb2listw(analysis_data_neighbours))

    Moran I test under randomisation

data:  analysis_data$mntd_normal  
weights: nb2listw(analysis_data_neighbours)    

Moran I statistic standard deviate = 7.6496, p-value = 0.00000000000001008
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.552360477      -0.003257329       0.005275586 

NMDS

with_realms_nmds(ggplot(analysis_data, aes(x = NMDS1, y = NMDS2, colour = mntd_standard)) + geom_point() + standardised_colours_scale + labs(colour = "Standardised response"))

moran.test(analysis_data$mntd_standard, nb2listw(analysis_data_nmds_neighbours))

    Moran I test under randomisation

data:  analysis_data$mntd_standard  
weights: nb2listw(analysis_data_nmds_neighbours)    

Moran I statistic standard deviate = 6.5193, p-value = 0.00000000003531
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.445538119      -0.003257329       0.004739028 
with_realms_nmds(ggplot(analysis_data, aes(x = NMDS1, y = NMDS2, colour = mntd_normal)) + geom_point() + standardised_colours_scale + labs(colour = "Normalised response"))

moran.test(analysis_data$mntd_normal, nb2listw(analysis_data_nmds_neighbours))

    Moran I test under randomisation

data:  analysis_data$mntd_normal  
weights: nb2listw(analysis_data_nmds_neighbours)    

Moran I statistic standard deviate = 6.2392, p-value = 0.0000000002199
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.426489674      -0.003257329       0.004744227 

FDiv Beak Width

Lat/Long

with_realms_latlong(ggplot(analysis_data, aes(x = latitude, y = longitude, colour = beak_width_fdiv_standard)) + geom_point() + standardised_colours_scale + labs(colour = "Standardised response"))

moran.test(analysis_data$beak_width_fdiv_standard, nb2listw(analysis_data_neighbours))

    Moran I test under randomisation

data:  analysis_data$beak_width_fdiv_standard  
weights: nb2listw(analysis_data_neighbours)    

Moran I statistic standard deviate = 7.7208, p-value = 0.000000000000005781
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.557818587      -0.003257329       0.005281064 
with_realms_latlong(ggplot(analysis_data, aes(x = latitude, y = longitude, colour = beak_width_fdiv_normal)) + geom_point() + standardised_colours_scale + labs(colour = "Normalised response"))

moran.test(analysis_data$beak_width_fdiv_normal, nb2listw(analysis_data_neighbours))

    Moran I test under randomisation

data:  analysis_data$beak_width_fdiv_normal  
weights: nb2listw(analysis_data_neighbours)    

Moran I statistic standard deviate = 8.3245, p-value < 0.00000000000000022
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.601742587      -0.003257329       0.005281967 

NMDS

with_realms_nmds(ggplot(analysis_data, aes(x = NMDS1, y = NMDS2, colour = beak_width_fdiv_standard)) + geom_point() + standardised_colours_scale + labs(colour = "Standardised response"))

moran.test(analysis_data$beak_width_fdiv_standard, nb2listw(analysis_data_nmds_neighbours))

    Moran I test under randomisation

data:  analysis_data$beak_width_fdiv_standard  
weights: nb2listw(analysis_data_nmds_neighbours)    

Moran I statistic standard deviate = 8.0587, p-value = 0.0000000000000003855
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.552096148      -0.003257329       0.004749061 
with_realms_nmds(ggplot(analysis_data, aes(x = NMDS1, y = NMDS2, colour = beak_width_fdiv_normal)) + geom_point() + standardised_colours_scale + labs(colour = "Normalised response"))

moran.test(analysis_data$beak_width_fdiv_normal, nb2listw(analysis_data_nmds_neighbours))

    Moran I test under randomisation

data:  analysis_data$beak_width_fdiv_normal  
weights: nb2listw(analysis_data_nmds_neighbours)    

Moran I statistic standard deviate = 7.5255, p-value = 0.00000000000002625
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.515397518      -0.003257329       0.004749858 

FDiv HWI

Lat/Long

with_realms_latlong(ggplot(analysis_data, aes(x = latitude, y = longitude, colour = hwi_fdiv_standard)) + geom_point() + standardised_colours_scale + labs(colour = "Standardised response"))

moran.test(analysis_data$hwi_fdiv_standard, nb2listw(analysis_data_neighbours))

    Moran I test under randomisation

data:  analysis_data$hwi_fdiv_standard  
weights: nb2listw(analysis_data_neighbours)    

Moran I statistic standard deviate = 9.756, p-value < 0.00000000000000022
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.705943030      -0.003257329       0.005284408 
with_realms_latlong(ggplot(analysis_data, aes(x = latitude, y = longitude, colour = hwi_fdiv_normal)) + geom_point() + standardised_colours_scale + labs(colour = "Normalised response"))

moran.test(analysis_data$hwi_fdiv_normal, nb2listw(analysis_data_neighbours))

    Moran I test under randomisation

data:  analysis_data$hwi_fdiv_normal  
weights: nb2listw(analysis_data_neighbours)    

Moran I statistic standard deviate = 10.186, p-value < 0.00000000000000022
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.737118550      -0.003257329       0.005283050 

NMDS

with_realms_nmds(ggplot(analysis_data, aes(x = NMDS1, y = NMDS2, colour = hwi_fdiv_standard)) + geom_point() + standardised_colours_scale + labs(colour = "Standardised response"))

moran.test(analysis_data$hwi_fdiv_standard, nb2listw(analysis_data_nmds_neighbours))

    Moran I test under randomisation

data:  analysis_data$hwi_fdiv_standard  
weights: nb2listw(analysis_data_nmds_neighbours)    

Moran I statistic standard deviate = 5.7294, p-value = 0.000000005039
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.391697713      -0.003257329       0.004752012 
with_realms_nmds(ggplot(analysis_data, aes(x = NMDS1, y = NMDS2, colour = hwi_fdiv_normal)) + geom_point() + standardised_colours_scale + labs(colour = "Normalised response"))

moran.test(analysis_data$hwi_fdiv_normal, nb2listw(analysis_data_nmds_neighbours))

    Moran I test under randomisation

data:  analysis_data$hwi_fdiv_normal  
weights: nb2listw(analysis_data_nmds_neighbours)    

Moran I statistic standard deviate = 6.2803, p-value = 0.0000000001689
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.429622019      -0.003257329       0.004750814 

FDiv Mass

Lat/Long

with_realms_latlong(ggplot(analysis_data, aes(x = latitude, y = longitude, colour = mass_fdiv_standard)) + geom_point() + standardised_colours_scale + labs(colour = "Standardised response"))

moran.test(analysis_data$mass_fdiv_standard, nb2listw(analysis_data_neighbours))

    Moran I test under randomisation

data:  analysis_data$mass_fdiv_standard  
weights: nb2listw(analysis_data_neighbours)    

Moran I statistic standard deviate = 9.1521, p-value < 0.00000000000000022
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.661355126      -0.003257329       0.005273416 
with_realms_latlong(ggplot(analysis_data, aes(x = latitude, y = longitude, colour = mass_fdiv_normal)) + geom_point() + standardised_colours_scale + labs(colour = "Normalised response"))

moran.test(analysis_data$mass_fdiv_normal, nb2listw(analysis_data_neighbours))

    Moran I test under randomisation

data:  analysis_data$mass_fdiv_normal  
weights: nb2listw(analysis_data_neighbours)    

Moran I statistic standard deviate = 9.008, p-value < 0.00000000000000022
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.650776207      -0.003257329       0.005271668 

NMDS

with_realms_nmds(ggplot(analysis_data, aes(x = NMDS1, y = NMDS2, colour = mass_fdiv_standard)) + geom_point() + standardised_colours_scale + labs(colour = "Standardised response"))

moran.test(analysis_data$mass_fdiv_standard, nb2listw(analysis_data_nmds_neighbours))

    Moran I test under randomisation

data:  analysis_data$mass_fdiv_standard  
weights: nb2listw(analysis_data_nmds_neighbours)    

Moran I statistic standard deviate = 6.2114, p-value = 0.0000000002625
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.424488243      -0.003257329       0.004742312 
with_realms_nmds(ggplot(analysis_data, aes(x = NMDS1, y = NMDS2, colour = mass_fdiv_normal)) + geom_point() + standardised_colours_scale + labs(colour = "Normalised response"))

moran.test(analysis_data$mass_fdiv_normal, nb2listw(analysis_data_nmds_neighbours))

    Moran I test under randomisation

data:  analysis_data$mass_fdiv_normal  
weights: nb2listw(analysis_data_nmds_neighbours)    

Moran I statistic standard deviate = 4.6538, p-value = 0.000001629
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.317170749      -0.003257329       0.004740769 

Examine individual metrics

all_explanatories = c(
    'city_avg_ndvi', 'city_avg_elevation', 'city_avg_temp',
    'region_50km_avg_soil_moisture',
    'core_realmAfrotropic', 'core_realmAustralasia', 'core_realmIndomalayan', 'core_realmNearctic', 'core_realmNeotropic', 'core_realmPalearctic',
    'has_introduced_speciesNo introduced species', 'has_introduced_speciesIntroduced species',
    'core_realmAfrotropic:has_introduced_speciesIntroduced species',
    'core_realmAustralasia:has_introduced_speciesIntroduced species',
    'core_realmIndomalayan:has_introduced_speciesIntroduced species',
    'core_realmNearctic:has_introduced_speciesIntroduced species',
    'core_realmNeotropic:has_introduced_speciesIntroduced species',
    'core_realmPalearctic:has_introduced_speciesIntroduced species',
    'core_realmOceania:has_introduced_speciesIntroduced species'
)

all_explanatory_names = factor(
   c(
    'Avg. NDVI', 'Avg. Elevation', 'Avg. Temp.',
    'Avg. Soil Moisture',
    'Afrotropic', 'Australasia', 'Indomalayan', 'Nearctic', 'Neotropic', 'Palearctic',
    'Introduced Absent', 'Introduced Present',
    'Afrotropical * Introduced present',
    'Austaliasian * Introduced present',
    'Indomalayan * Introduced present',
    'Nearctic * Introduced present',
    'Neotropical * Introduced present',
    'Palearctic * Introduced present',
    'Oceanical * Introduced present'
  ), ordered = T
)

explanatory_dictionary = data.frame(explanatory = all_explanatories, explanatory_name = all_explanatory_names)
  
with_explanatory_type_labels = function(p) {
  p = p[p$explanatory != '(Intercept)',]
  explanatory_levels = all_explanatories[all_explanatories %in% p$explanatory]
  p$explanatory <- factor(p$explanatory, levels = explanatory_levels)
  
  p$type <- 'Realm'
  p$type[p$explanatory %in% c('city_avg_ndvi', 'city_avg_elevation', 'city_avg_temp')] <- 'City geography'
  p$type[p$explanatory %in% c('region_50km_avg_soil_moisture')] <- 'Regional (50 km) geography'
  p$type[p$explanatory %in% c('has_introduced_speciesNo introduced species', 'has_introduced_speciesIntroduced species')] <- 'Introduced species'
  p
}

with_explanatory_names = function(p) {
  p %>% left_join(explanatory_dictionary) %>% arrange(desc(explanatory_name))
}

type_labels = function(p) {
  explanatory_levels = all_explanatories[all_explanatories %in% p$explanatory]
  p$explanatory <- factor(p$explanatory, levels = explanatory_levels)
  
  p$type <- 'Realm'
  p$type[p$explanatory %in% c('city_avg_ndvi', 'city_avg_elevation', 'city_avg_temp', 'city_avg_min_monthly_temp', 'city_avg_max_monthly_temp', 
    'city_avg_monthly_temp', 'city_avg_rainfall', 'city_avg_max_monthly_rainfall', 'city_avg_min_monthly_rainfall', 
    'city_avg_soil_moisture', 'city_max_elev', 'city_min_elev', 'city_elev_range')] <- 'City geography'
  p$type[p$explanatory %in% c('region_50km_avg_ndvi', 'region_50km_avg_elevation', 'region_50km_avg_soil_moisture', 'region_50km_max_elev', 
    'region_50km_min_elev', 'region_50km_elev_range')] <- 'Regional (50 km) geography'
   p$type[p$explanatory %in% c('region_20km_avg_ndvi', 'region_20km_avg_elevation', 'region_20km_avg_soil_moisture', 'region_20km_max_elev', 
    'region_20km_min_elev', 'region_20km_elev_range')] <- 'Regional (20 km) geography'
  p$type[p$explanatory %in% c('has_introduced_speciesNo introduced species', 'has_introduced_speciesIntroduced species')] <- 'Introduced species'
  p
}
explanatory_labels = c(
  'has_introduced_species'='Introduced species', 
  'has_introduced_speciesNo introduced species'='Introduced absent', 
  'has_introduced_speciesIntroduced species'='Introduced present',
  'city_avg_ndvi'='Average NDVI', 
  'city_avg_elevation'='Average elevation', 
  'city_avg_temp'='Average temperature', 
  'city_avg_min_monthly_temp'='Average minimum monthly temperature', 
  'city_avg_max_monthly_temp'='Average maximum monthly temperature', 
  'city_avg_monthly_temp'='Average monthly temperature', 
  'city_avg_rainfall'='Average rainfall', 
  'city_avg_max_monthly_rainfall'='Average maximum monthly rainfall', 
  'city_avg_min_monthly_rainfall'='Average minimum monthly rainfall', 
  'city_avg_soil_moisture'='Average soil moisture', 
  'city_max_elev'='Maximum elevation', 
  'city_min_elev'='Minimum elevation', 
  'city_elev_range'='Elevation range', 
  'region_20km_avg_ndvi'='Average NDVI', 
  'region_20km_avg_elevation'='Average elevation', 
  'region_20km_avg_soil_moisture'='Average soil moisture', 
  'region_20km_max_elev'='Maximum elevation', 
  'region_20km_min_elev'='Minimum elevation',
  'region_20km_elev_range'='Elevation range',
  'region_50km_avg_ndvi'='Average NDVI',
  'region_50km_avg_elevation'='Average elevation',
  'region_50km_avg_soil_moisture'='Average soil moisture', 
  'region_50km_max_elev'='Maximum elevation',
  'region_50km_min_elev'='Minimum elevation', 
  'region_50km_elev_range'='Elevation range',
  'abs_latitude' = 'Absolute latitude',
  'latitude' = 'Latitude',
  'longitude' = 'Longitude',
  'core_realmAfrotropic' = 'Afrotropical', 
  'core_realmAustralasia' = 'Austaliasian', 
  'core_realmIndomalayan' = 'Indomalayan', 
  'core_realmNearctic' = 'Nearctic', 
  'core_realmNeotropic' = 'Neotropical',
  'core_realmPalearctic' = 'Palearctic',
  'core_realmOceania' = 'Oceanical',
  'core_realmAfrotropic:has_introduced_speciesIntroduced species' = 'Afrotropical * Introduced present',
  'core_realmAustralasia:has_introduced_speciesIntroduced species' = 'Austaliasian * Introduced present',
  'core_realmIndomalayan:has_introduced_speciesIntroduced species' = 'Indomalayan * Introduced present',
  'core_realmNearctic:has_introduced_speciesIntroduced species' = 'Nearctic * Introduced present',
  'core_realmNeotropic:has_introduced_speciesIntroduced species' = 'Neotropical * Introduced present',
  'core_realmPalearctic:has_introduced_speciesIntroduced species' = 'Palearctic * Introduced present',
  'core_realmOceania:has_introduced_speciesIntroduced species' = 'Oceanical * Introduced present'
)
create_formula = function(response_var) {
  as.formula(paste(response_var, '~ core_realm + city_avg_ndvi + city_avg_elevation + city_avg_temp + region_50km_avg_soil_moisture + has_introduced_species'))
}

Helper plot functions

geom_map = function(map_sf, title, scale = standardised_colours_scale, colour_label = 'Standardised\nResponse') {
  norm_mntd_analysis_geo = ggplot() + 
    geom_sf(data = world_map, aes(geometry = geometry)) +
    map_sf +
    scale +
    labs(colour = colour_label) +
    theme_bw() +
    theme(legend.position="bottom")
}

geom_map_std = function(map_sf, title) {
  geom_map(map_sf, title)
}

geom_map_nrm = function(map_sf, title) {
  geom_map(map_sf, title, normalised_colours_scale, 'Normalised\nResponse')
}

Helper Dredge functions

# Taken from MuMIN package
# https://rdrr.io/cran/MuMIn/src/R/averaging.R
# https://rdrr.io/cran/MuMIn/src/R/model.avg.R

.coefarr.avg <-
  function(cfarr, weight, revised.var, full, alpha) {   
    weight <- weight / sum(weight)
    nCoef <- dim(cfarr)[3L]
    if(full) {
      nas <- is.na(cfarr[, 1L, ]) & is.na(cfarr[, 2L, ])
      cfarr[, 1L, ][nas] <- cfarr[, 2L, ][nas] <- 0
      #cfarr[, 1L:2L, ][is.na(cfarr[, 1L:2L, ])] <- 0
      if(!all(is.na(cfarr[, 3L, ])))
        cfarr[ ,3L, ][is.na(cfarr[ , 3L, ])] <- Inf
    }
    
    avgcoef <- array(dim = c(nCoef, 5L),
                     dimnames = list(dimnames(cfarr)[[3L]], c("Estimate",
                                                              "Std. Error", "Adjusted SE", "Lower CI", "Upper CI")))
    for(i in seq_len(nCoef))
      avgcoef[i, ] <- par.avg(cfarr[, 1L, i], cfarr[, 2L, i], weight,
                              df = cfarr[, 3L, i], alpha = alpha, revised.var = revised.var)
    
    avgcoef[is.nan(avgcoef)] <- NA
    return(avgcoef)
  }

.makecoefmat <- function(cf) {
  no.ase <- all(is.na(cf[, 3L]))
  z <- abs(cf[, 1L] / cf[, if(no.ase) 2L else 3L])
  pval <- 2 * pnorm(z, lower.tail = FALSE)
  cbind(cf[, if(no.ase) 1L:2L else 1L:3L, drop = FALSE],
        `z value` = z, `Pr(>|z|)` = zapsmall(pval))
}

# Generate model selections using lmer, dredge, and model.avg
# `forumla` : a two-sided linear formula object describing both the fixed-effects and random-effects part of the model
# `data` : the data frame containing the variables from the formula
# `aic_delta` : the AIC delta to use for selecting models in model average
model_average <- function(formula, data, aic_delta = 20) {
  model <- lm(
    formula,
    data=data
  )
  dredge_result <- dredge(model)
  summary(model.avg(dredge_result, subset = delta < aic_delta))
}

# Create a summary data frame containing the selected variables from a model
# `model_sum` : The model summary output from `model_average`
model_summary <- function(model_sum) {
  .column_name <- function(postfix) {
    postfix
  }
  
  # just return the estimate and p value
  weight <- model_sum$msTable[, 5L]
  
  coefmat.full <- as.data.frame(.makecoefmat(.coefarr.avg(model_sum$coefArray, weight,
                                                          attr(model_sum, "revised.var"), TRUE, 0.05)))
  
  coefmat.subset <-
    as.data.frame(.makecoefmat(.coefarr.avg(model_sum$coefArray, weight,
                                            attr(model_sum, "revised.var"), FALSE, 0.05)))
  
  
  coefmat.subset <- coefmat.subset[-c(1), c(1, 2, 5)]
  names(coefmat.subset) <- c(.column_name("estimate"), .column_name("error"), .column_name("p"))
  coefmat.subset <- tibble::rownames_to_column(coefmat.subset, "explanatory")
  coefmat.subset$model = 'subset'
  
  coefmat.full <- coefmat.full[-c(1), c(1, 2, 5)]
  names(coefmat.full) <- c(.column_name("estimate"), .column_name("error"), .column_name("p"))
  coefmat.full <- tibble::rownames_to_column(coefmat.full, "explanatory")
  coefmat.full$model = 'full'
  
  rbind(coefmat.full, coefmat.subset)
}
plot_dredge_result = function(result_table, mu = 0) {
  p = result_table[result_table$model == 'full',]
  p = type_labels(p)

  ggplot(p, aes(y = explanatory, x = estimate, colour = type)) + 
    geom_line() +
    geom_point() +
    geom_errorbar(aes(xmin=estimate-error, xmax=estimate+error), width=.2,
                   position=position_dodge(0.05)) +
    scale_y_discrete(
      limits = rev(levels(p$explanatory)), 
      labels = explanatory_labels) +
    scale_colour_manual(
      values = c(realm_colour, city_geography_colour, regional_50km_geography_colour, regional_20km_geography_colour, introduced_species_colour), 
      breaks = c('Realm', 'City geography', 'Regional (50 km) geography', 'Regional (20 km) geography', 'Introduced species')) +
    theme_bw() +
    geom_vline(xintercept=mu, linetype="dotted") +
    guides(colour=guide_legend(title="Predictor type")) + xlab('Difference in response from 0\nhabitat filtering (< 0) and competitive interactions (> 0)\n± Standard Error') + ylab('Predictor') +
    theme(legend.justification = "top")
}

GLS Spatial Helpers

gls_method = "ML"

spatial_model = function(formula, correlation) {
  gls(
    formula, 
    data = analysis_data, 
    correlation = correlation, 
    method = gls_method
  )
}

plot_spatial_result = function(model_result) {
  model_summary = summary(model_result)
  result_table = as.data.frame(model_summary$tTable)
  result_table$explanatory = rownames(result_table)
  
  result_table = result_table %>% with_explanatory_type_labels() %>% with_explanatory_names()
  
  ggplot2::ggplot(result_table, ggplot2::aes(y=factor(explanatory_name, level = all_explanatory_names, ordered = T), x=Value, colour = type)) + 
    ggplot2::geom_line() +
    ggplot2::geom_point() +
    ggplot2::geom_errorbar(ggplot2::aes(xmin=Value-Std.Error, xmax=Value+Std.Error), width=.2,
                   position=ggplot2::position_dodge(0.05)) +
    ggplot2::theme_bw() +
    ggplot2::geom_vline(xintercept=0, linetype="dotted") +
    ggplot2::theme(legend.justification = "top") +
    ylab('Predictor') +
    guides(colour=guide_legend(title="Predictor type")) + xlab('Difference in response from 0\nhabitat filtering (< 0) and competitive interactions (> 0)\n± Standard Error') +
    scale_colour_manual(
      values = c(realm_colour, city_geography_colour, regional_50km_geography_colour, introduced_species_colour), 
      breaks = c('Realm', 'City geography', 'Regional (50 km) geography', 'Introduced species')) +
    scale_y_discrete(limits = rev(all_explanatory_names[all_explanatory_names %in% result_table$explanatory_name]))
}

Choose best spatial correlation function

MNTD

AIC(spatial_model(create_formula('mntd_standard'), corLin(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] 661.8901
AIC(spatial_model(create_formula('mntd_standard'), corLin(form = ~ latitude + longitude)))
[1] 666.4295
AIC(spatial_model(create_formula('mntd_standard'), corExp(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] 653.0099
AIC(spatial_model(create_formula('mntd_standard'), corExp(form = ~ latitude + longitude)))
[1] 656.6118
AIC(spatial_model(create_formula('mntd_standard'), corGaus(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] 657.7216
AIC(spatial_model(create_formula('mntd_standard'), corGaus(form = ~ latitude + longitude)))
[1] 662.5602
AIC(spatial_model(create_formula('mntd_standard'), corRatio(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] 650.3759
AIC(spatial_model(create_formula('mntd_standard'), corRatio(form = ~ latitude + longitude)))
[1] 654.8339
AIC(spatial_model(create_formula('mntd_standard'), corSpher(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] 659.8723
AIC(spatial_model(create_formula('mntd_standard'), corSpher(form = ~ latitude + longitude)))
[1] 664.1159

MNTD: corRatio with NMDS + lat/long

AIC(spatial_model(create_formula('mntd_normal'), corLin(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] -81.16061
#AIC(spatial_model(create_formula('mntd_normal'), corLin(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('mntd_normal'), corExp(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] -89.28852
AIC(spatial_model(create_formula('mntd_normal'), corExp(form = ~ latitude + longitude)))
[1] -86.17138
AIC(spatial_model(create_formula('mntd_normal'), corGaus(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] -86.02288
AIC(spatial_model(create_formula('mntd_normal'), corGaus(form = ~ latitude + longitude)))
[1] -79.92235
AIC(spatial_model(create_formula('mntd_normal'), corRatio(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] -92.46759
AIC(spatial_model(create_formula('mntd_normal'), corRatio(form = ~ latitude + longitude)))
[1] -86.60443
AIC(spatial_model(create_formula('mntd_normal'), corSpher(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] -86.78558
AIC(spatial_model(create_formula('mntd_normal'), corSpher(form = ~ latitude + longitude)))
[1] -81.47393

Beak Width

AIC(spatial_model(create_formula('beak_width_fdiv_standard'), corLin(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] 793.5251
#AIC(spatial_model(create_formula('beak_width_fdiv_standard'), corLin(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('beak_width_fdiv_standard'), corExp(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] 789.282
AIC(spatial_model(create_formula('beak_width_fdiv_standard'), corExp(form = ~ latitude + longitude)))
[1] 790.0085
AIC(spatial_model(create_formula('beak_width_fdiv_standard'), corGaus(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] 793.7668
AIC(spatial_model(create_formula('beak_width_fdiv_standard'), corGaus(form = ~ latitude + longitude)))
[1] 793.7656
AIC(spatial_model(create_formula('beak_width_fdiv_standard'), corRatio(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] 791.2572
AIC(spatial_model(create_formula('beak_width_fdiv_standard'), corRatio(form = ~ latitude + longitude)))
[1] 791.3899
AIC(spatial_model(create_formula('beak_width_fdiv_standard'), corSpher(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] 793.8106
AIC(spatial_model(create_formula('beak_width_fdiv_standard'), corSpher(form = ~ latitude + longitude)))
[1] 793.8106

Beak width: corExp with NMDS + lat/long

AIC(spatial_model(create_formula('beak_width_fdiv_normal'), corLin(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] -45.30823
AIC(spatial_model(create_formula('beak_width_fdiv_normal'), corLin(form = ~ latitude + longitude)))
[1] -45.30823
AIC(spatial_model(create_formula('beak_width_fdiv_normal'), corExp(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] -51.4648
AIC(spatial_model(create_formula('beak_width_fdiv_normal'), corExp(form = ~ latitude + longitude)))
[1] -50.46273
AIC(spatial_model(create_formula('beak_width_fdiv_normal'), corGaus(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] -45.13365
AIC(spatial_model(create_formula('beak_width_fdiv_normal'), corGaus(form = ~ latitude + longitude)))
[1] -45.13552
AIC(spatial_model(create_formula('beak_width_fdiv_normal'), corRatio(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] -47.44015
AIC(spatial_model(create_formula('beak_width_fdiv_normal'), corRatio(form = ~ latitude + longitude)))
[1] -47.368
AIC(spatial_model(create_formula('beak_width_fdiv_normal'), corSpher(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] -44.97422
AIC(spatial_model(create_formula('beak_width_fdiv_normal'), corSpher(form = ~ latitude + longitude)))
[1] -44.97475

HWI

AIC(spatial_model(create_formula('hwi_fdiv_standard'), corLin(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] 694.55
AIC(spatial_model(create_formula('hwi_fdiv_standard'), corLin(form = ~ latitude + longitude)))
[1] 699.3174
AIC(spatial_model(create_formula('hwi_fdiv_standard'), corExp(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] 666.6631
AIC(spatial_model(create_formula('hwi_fdiv_standard'), corExp(form = ~ latitude + longitude)))
[1] 671.4924
AIC(spatial_model(create_formula('hwi_fdiv_standard'), corGaus(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] 704.4854
AIC(spatial_model(create_formula('hwi_fdiv_standard'), corGaus(form = ~ latitude + longitude)))
[1] 709.2567
AIC(spatial_model(create_formula('hwi_fdiv_standard'), corRatio(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] 685.5013
AIC(spatial_model(create_formula('hwi_fdiv_standard'), corRatio(form = ~ latitude + longitude)))
[1] 690.9801
AIC(spatial_model(create_formula('hwi_fdiv_standard'), corSpher(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] 689.5034
AIC(spatial_model(create_formula('hwi_fdiv_standard'), corSpher(form = ~ latitude + longitude)))
[1] 707.7108

HWI: corExp with NMDS + lat/long

#AIC(spatial_model(create_formula('hwi_fdiv_normal'), corLin(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
#AIC(spatial_model(create_formula('hwi_fdiv_normal'), corLin(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('hwi_fdiv_normal'), corExp(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] -96.05945
AIC(spatial_model(create_formula('hwi_fdiv_normal'), corExp(form = ~ latitude + longitude)))
[1] -91.16342
AIC(spatial_model(create_formula('hwi_fdiv_normal'), corGaus(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] -54.57955
AIC(spatial_model(create_formula('hwi_fdiv_normal'), corGaus(form = ~ latitude + longitude)))
[1] -50.52492
AIC(spatial_model(create_formula('hwi_fdiv_normal'), corRatio(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] -74.90875
AIC(spatial_model(create_formula('hwi_fdiv_normal'), corRatio(form = ~ latitude + longitude)))
[1] -69.65899
AIC(spatial_model(create_formula('hwi_fdiv_normal'), corSpher(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] -53.60829
AIC(spatial_model(create_formula('hwi_fdiv_normal'), corSpher(form = ~ latitude + longitude)))
[1] -61.05117

Mass

AIC(spatial_model(create_formula('mass_fdiv_standard'), corLin(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] 703.1192
#AIC(spatial_model(create_formula('mass_fdiv_standard'), corLin(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('mass_fdiv_standard'), corExp(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] 753.3038
AIC(spatial_model(create_formula('mass_fdiv_standard'), corExp(form = ~ latitude + longitude)))
[1] 755.7536
AIC(spatial_model(create_formula('mass_fdiv_standard'), corGaus(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] 786.6415
AIC(spatial_model(create_formula('mass_fdiv_standard'), corGaus(form = ~ latitude + longitude)))
[1] 785.0663
AIC(spatial_model(create_formula('mass_fdiv_standard'), corRatio(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] 766.9612
AIC(spatial_model(create_formula('mass_fdiv_standard'), corRatio(form = ~ latitude + longitude)))
[1] 766.903
AIC(spatial_model(create_formula('mass_fdiv_standard'), corSpher(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] 780.4268
AIC(spatial_model(create_formula('mass_fdiv_standard'), corSpher(form = ~ latitude + longitude)))
[1] 779.8638

Mass: corExp with NMDS + lat/long

#AIC(spatial_model(create_formula('mass_fdiv_normal'), corLin(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
#AIC(spatial_model(create_formula('mass_fdiv_normal'), corLin(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('mass_fdiv_normal'), corExp(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] -49.779
AIC(spatial_model(create_formula('mass_fdiv_normal'), corExp(form = ~ latitude + longitude)))
[1] -48.0529
AIC(spatial_model(create_formula('mass_fdiv_normal'), corGaus(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] -21.84722
AIC(spatial_model(create_formula('mass_fdiv_normal'), corGaus(form = ~ latitude + longitude)))
[1] -23.29214
AIC(spatial_model(create_formula('mass_fdiv_normal'), corRatio(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] -35.17179
AIC(spatial_model(create_formula('mass_fdiv_normal'), corRatio(form = ~ latitude + longitude)))
[1] -35.60617
AIC(spatial_model(create_formula('mass_fdiv_normal'), corSpher(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
[1] -27.00252
AIC(spatial_model(create_formula('mass_fdiv_normal'), corSpher(form = ~ latitude + longitude)))
[1] -27.91974
correlation_formula = as.formula('~ NMDS1 + NMDS2 + latitude + longitude')

correlation_function_fdiv = function() {
  corExp(form = correlation_formula)
}

correlation_function_mntd = function() {
  corRatio(form = correlation_formula)
}

MNTD

Standardised

std_mntd_analysis_geo_plot = geom_map_std(geom_sf(data = analysis_data, aes(color = mntd_standard, geometry = geometry)), 'MNTD')
std_mntd_analysis_geo_plot

std_mntd_analysis_data = model_data(analysis_data[!is.na(analysis_data$mntd_standard),], 'mntd_standard')
std_mntd_analysis_formula = create_formula('mntd_standard')
std_mntd_analysis_result = model_average(std_mntd_analysis_formula, std_mntd_analysis_data)
Fixed term is "(Intercept)"
std_mntd_analysis_result_table = model_summary(std_mntd_analysis_result)
std_mntd_analysis_result_table
std_mntd_analysis_pred_plot = plot_dredge_result(std_mntd_analysis_result_table)
std_mntd_analysis_pred_plot

Do the residuals still contain spatial autocorrelation from a fitted lm?

std_mntd_lm = lm(std_mntd_analysis_formula, std_mntd_analysis_data)
moran.test(std_mntd_lm$residuals, nb2listw(analysis_data_neighbours))

    Moran I test under randomisation

data:  std_mntd_lm$residuals  
weights: nb2listw(analysis_data_neighbours)    

Moran I statistic standard deviate = 3.8425, p-value = 0.0000609
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.275671194      -0.003257329       0.005269438 
moran.test(std_mntd_lm$residuals, nb2listw(analysis_data_nmds_neighbours))

    Moran I test under randomisation

data:  std_mntd_lm$residuals  
weights: nb2listw(analysis_data_nmds_neighbours)    

Moran I statistic standard deviate = 2.9566, p-value = 0.001555
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.200271681      -0.003257329       0.004738802 
std_mntd_spatial_model = spatial_model(std_mntd_analysis_formula, correlation_function_mntd())
moran.test(std_mntd_spatial_model$residuals, nb2listw(analysis_data_neighbours))

    Moran I test under randomisation

data:  std_mntd_spatial_model$residuals  
weights: nb2listw(analysis_data_neighbours)    

Moran I statistic standard deviate = 4.0485, p-value = 0.00002578
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.290664449      -0.003257329       0.005270844 
moran.test(std_mntd_spatial_model$residuals, nb2listw(analysis_data_nmds_neighbours))

    Moran I test under randomisation

data:  std_mntd_spatial_model$residuals  
weights: nb2listw(analysis_data_nmds_neighbours)    

Moran I statistic standard deviate = 3.1544, p-value = 0.0008041
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.213916976      -0.003257329       0.004740043 
std_mntd_analysis_pred_spatial_plot = plot_spatial_result(std_mntd_spatial_model)
Joining with `by = join_by(explanatory)`
std_mntd_analysis_pred_spatial_plot

Normalised

nrm_mntd_analysis_geo_plot = geom_map_nrm(geom_sf(data = analysis_data, aes(color = mntd_normal, geometry = geometry)), 'MNTD')
nrm_mntd_analysis_geo_plot

nrm_mntd_analysis_data = model_data(analysis_data[!is.na(analysis_data$mntd_normal),], 'mntd_normal')
nrm_mntd_analysis_formula = create_formula('mntd_normal')
nrm_mntd_analysis_result = model_average(nrm_mntd_analysis_formula, nrm_mntd_analysis_data)
Fixed term is "(Intercept)"
nrm_mntd_analysis_result_table = model_summary(nrm_mntd_analysis_result)
nrm_mntd_analysis_result_table
nrm_mntd_analysis_pred_plot = plot_dredge_result(nrm_mntd_analysis_result_table)
nrm_mntd_analysis_pred_plot

Do the residuals still contain spatial autocorrelation from a fitted lm?

nrm_mntd_lm = lm(nrm_mntd_analysis_formula, nrm_mntd_analysis_data)
moran.test(nrm_mntd_lm$residuals, nb2listw(analysis_data_neighbours))

    Moran I test under randomisation

data:  nrm_mntd_lm$residuals  
weights: nb2listw(analysis_data_neighbours)    

Moran I statistic standard deviate = 4.2864, p-value = 0.000009079
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.307465451      -0.003257329       0.005254828 
moran.test(nrm_mntd_lm$residuals, nb2listw(analysis_data_nmds_neighbours))

    Moran I test under randomisation

data:  nrm_mntd_lm$residuals  
weights: nb2listw(analysis_data_nmds_neighbours)    

Moran I statistic standard deviate = 2.0944, p-value = 0.01811
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.140725445      -0.003257329       0.004725908 
nrm_mntd_spatial_model = spatial_model(nrm_mntd_analysis_formula, correlation_function_mntd())
moran.test(nrm_mntd_spatial_model$residuals, nb2listw(analysis_data_neighbours))

    Moran I test under randomisation

data:  nrm_mntd_spatial_model$residuals  
weights: nb2listw(analysis_data_neighbours)    

Moran I statistic standard deviate = 4.7455, p-value = 0.00000104
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.340740843      -0.003257329       0.005254693 
moran.test(nrm_mntd_spatial_model$residuals, nb2listw(analysis_data_nmds_neighbours))

    Moran I test under randomisation

data:  nrm_mntd_spatial_model$residuals  
weights: nb2listw(analysis_data_nmds_neighbours)    

Moran I statistic standard deviate = 2.3578, p-value = 0.009192
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.158827607      -0.003257329       0.004725789 
nrm_mntd_analysis_pred_spatial_plot = plot_spatial_result(nrm_mntd_spatial_model)
Joining with `by = join_by(explanatory)`
nrm_mntd_analysis_pred_spatial_plot

Gape width - FDiv

Standardised

std_gape_fdiv_analysis_geo_plot = geom_map_std(geom_sf(data = analysis_data, aes(color = beak_width_fdiv_standard, geometry = geometry)), 'Beak Width FDiv')
std_gape_fdiv_analysis_geo_plot

std_gape_fdiv_analysis_data = model_data(analysis_data[!is.na(analysis_data$beak_width_fdiv_standard),], 'beak_width_fdiv_standard')
std_gape_fdiv_analysis_formula = create_formula('beak_width_fdiv_standard')
std_gape_fdiv_analysis_result = model_average(std_gape_fdiv_analysis_formula, std_gape_fdiv_analysis_data)
Fixed term is "(Intercept)"
std_gape_fdiv_analysis_result_table = model_summary(std_gape_fdiv_analysis_result)
std_gape_fdiv_analysis_result_table
std_gape_fdiv_analysis_pred_plot = plot_dredge_result(std_gape_fdiv_analysis_result_table)
std_gape_fdiv_analysis_pred_plot

Do the residuals still contain spatial autocorrelation from a fitted lm?

std_gape_fdiv_lm = lm(std_gape_fdiv_analysis_formula, std_gape_fdiv_analysis_data)
moran.test(std_gape_fdiv_lm$residuals, nb2listw(analysis_data_neighbours))

    Moran I test under randomisation

data:  std_gape_fdiv_lm$residuals  
weights: nb2listw(analysis_data_neighbours)    

Moran I statistic standard deviate = 3.5059, p-value = 0.0002275
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.251017001      -0.003257329       0.005260172 
moran.test(std_gape_fdiv_lm$residuals, nb2listw(analysis_data_nmds_neighbours))

    Moran I test under randomisation

data:  std_gape_fdiv_lm$residuals  
weights: nb2listw(analysis_data_nmds_neighbours)    

Moran I statistic standard deviate = 1.6582, p-value = 0.04864
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.110794578      -0.003257329       0.004730625 
std_gape_fdiv_spatial_model = spatial_model(std_gape_fdiv_analysis_formula, correlation_function_fdiv())
moran.test(std_gape_fdiv_spatial_model$residuals, nb2listw(analysis_data_neighbours))

    Moran I test under randomisation

data:  std_gape_fdiv_spatial_model$residuals  
weights: nb2listw(analysis_data_neighbours)    

Moran I statistic standard deviate = 3.5695, p-value = 0.0001789
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.255641928      -0.003257329       0.005260840 
moran.test(std_gape_fdiv_spatial_model$residuals, nb2listw(analysis_data_nmds_neighbours))

    Moran I test under randomisation

data:  std_gape_fdiv_spatial_model$residuals  
weights: nb2listw(analysis_data_nmds_neighbours)    

Moran I statistic standard deviate = 1.868, p-value = 0.03088
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.125233427      -0.003257329       0.004731214 
std_gape_fdiv_analysis_pred_spatial_plot = plot_spatial_result(std_gape_fdiv_spatial_model)
Joining with `by = join_by(explanatory)`
std_gape_fdiv_analysis_pred_spatial_plot

Normalised

nrm_gape_fdiv_analysis_geo_plot = geom_map_nrm(geom_sf(data = analysis_data, aes(color = beak_width_fdiv_normal, geometry = geometry)), 'Beak Width FDiv')
nrm_gape_fdiv_analysis_geo_plot

nrm_gape_fdiv_analysis_data = model_data(analysis_data[!is.na(analysis_data$beak_width_fdiv_normal),], 'beak_width_fdiv_normal')
nrm_gape_fdiv_analysis_formula = create_formula('beak_width_fdiv_normal')
nrm_gape_fdiv_analysis_result = model_average(nrm_gape_fdiv_analysis_formula, nrm_gape_fdiv_analysis_data)
Fixed term is "(Intercept)"
nrm_gape_fdiv_analysis_result_table = model_summary(nrm_gape_fdiv_analysis_result)
nrm_gape_fdiv_analysis_result_table
nrm_gape_fdiv_analysis_pred_plot = plot_dredge_result(nrm_gape_fdiv_analysis_result_table)
nrm_gape_fdiv_analysis_pred_plot

Do the residuals still contain spatial autocorrelation from a fitted lm?

nrm_gape_fdiv_lm = lm(nrm_gape_fdiv_analysis_formula, nrm_gape_fdiv_analysis_data)
moran.test(nrm_gape_fdiv_lm$residuals, nb2listw(analysis_data_neighbours))

    Moran I test under randomisation

data:  nrm_gape_fdiv_lm$residuals  
weights: nb2listw(analysis_data_neighbours)    

Moran I statistic standard deviate = 4.3357, p-value = 0.000007265
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.311050869      -0.003257329       0.005255227 
moran.test(nrm_gape_fdiv_lm$residuals, nb2listw(analysis_data_nmds_neighbours))

    Moran I test under randomisation

data:  nrm_gape_fdiv_lm$residuals  
weights: nb2listw(analysis_data_nmds_neighbours)    

Moran I statistic standard deviate = 1.4217, p-value = 0.07756
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.094482089      -0.003257329       0.004726261 
nrm_gape_fdiv_spatial_model = spatial_model(nrm_gape_fdiv_analysis_formula, correlation_function_fdiv())
moran.test(nrm_gape_fdiv_spatial_model$residuals, nb2listw(analysis_data_neighbours))

    Moran I test under randomisation

data:  nrm_gape_fdiv_spatial_model$residuals  
weights: nb2listw(analysis_data_neighbours)    

Moran I statistic standard deviate = 4.4995, p-value = 0.000003406
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.322936781      -0.003257329       0.005255637 
moran.test(nrm_gape_fdiv_spatial_model$residuals, nb2listw(analysis_data_nmds_neighbours))

    Moran I test under randomisation

data:  nrm_gape_fdiv_spatial_model$residuals  
weights: nb2listw(analysis_data_nmds_neighbours)    

Moran I statistic standard deviate = 1.7347, p-value = 0.0414
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.116002600      -0.003257329       0.004726623 
nrm_gape_fdiv_analysis_pred_spatial_plot = plot_spatial_result(nrm_gape_fdiv_spatial_model)
Joining with `by = join_by(explanatory)`
nrm_gape_fdiv_analysis_pred_spatial_plot

HWI - FDiv

Standardised

std_hwi_fdiv_analysis_geo_plot = geom_map_std(geom_sf(data = analysis_data, aes(color = hwi_fdiv_standard, geometry = geometry)), 'HWI FDiv')
std_hwi_fdiv_analysis_geo_plot

std_hwi_fdiv_analysis_data = model_data(analysis_data[!is.na(analysis_data$hwi_fdiv_standard),], 'hwi_fdiv_standard')
std_hwi_fdiv_analysis_formula = create_formula('hwi_fdiv_standard')
std_hwi_fdiv_analysis_result = model_average(std_hwi_fdiv_analysis_formula, std_hwi_fdiv_analysis_data)
Fixed term is "(Intercept)"
std_hwi_fdiv_analysis_result_table = model_summary(std_hwi_fdiv_analysis_result)
std_hwi_fdiv_analysis_result_table
std_hwi_fdiv_analysis_pred_plot = plot_dredge_result(std_hwi_fdiv_analysis_result_table)
std_hwi_fdiv_analysis_pred_plot

std_hwi_fdiv_lm = lm(std_hwi_fdiv_analysis_formula, std_hwi_fdiv_analysis_data)
moran.test(std_hwi_fdiv_lm$residuals, nb2listw(analysis_data_neighbours))

    Moran I test under randomisation

data:  std_hwi_fdiv_lm$residuals  
weights: nb2listw(analysis_data_neighbours)    

Moran I statistic standard deviate = 6.1738, p-value = 0.0000000003333
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.444286636      -0.003257329       0.005254904 
moran.test(std_hwi_fdiv_lm$residuals, nb2listw(analysis_data_nmds_neighbours))

    Moran I test under randomisation

data:  std_hwi_fdiv_lm$residuals  
weights: nb2listw(analysis_data_nmds_neighbours)    

Moran I statistic standard deviate = 3.8009, p-value = 0.00007207
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.258041658      -0.003257329       0.004725975 
std_hwi_fdiv_spatial_model = spatial_model(std_hwi_fdiv_analysis_formula, correlation_function_fdiv())
moran.test(std_hwi_fdiv_spatial_model$residuals, nb2listw(analysis_data_neighbours))

    Moran I test under randomisation

data:  std_hwi_fdiv_spatial_model$residuals  
weights: nb2listw(analysis_data_neighbours)    

Moran I statistic standard deviate = 7.2179, p-value = 0.0000000000002639
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.520272713      -0.003257329       0.005260863 
moran.test(std_hwi_fdiv_spatial_model$residuals, nb2listw(analysis_data_nmds_neighbours))

    Moran I test under randomisation

data:  std_hwi_fdiv_spatial_model$residuals  
weights: nb2listw(analysis_data_nmds_neighbours)    

Moran I statistic standard deviate = 3.3854, p-value = 0.0003554
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.229604043      -0.003257329       0.004731234 
std_hwi_fdiv_analysis_pred_spatial_plot = plot_spatial_result(std_hwi_fdiv_spatial_model)
Joining with `by = join_by(explanatory)`
std_hwi_fdiv_analysis_pred_spatial_plot

Normalised

nrm_hwi_fdiv_analysis_geo_plot = geom_map_nrm(geom_sf(data = analysis_data, aes(color = hwi_fdiv_normal, geometry = geometry)), 'HWI FDiv')
nrm_hwi_fdiv_analysis_geo_plot

nrm_hwi_fdiv_analysis_data = model_data(analysis_data[!is.na(analysis_data$hwi_fdiv_normal),], 'hwi_fdiv_normal')
nrm_hwi_fdiv_analysis_formula = create_formula('hwi_fdiv_normal')
nrm_hwi_fdiv_analysis_result = model_average(nrm_hwi_fdiv_analysis_formula, nrm_hwi_fdiv_analysis_data)
Fixed term is "(Intercept)"
nrm_hwi_fdiv_analysis_result_table = model_summary(nrm_hwi_fdiv_analysis_result)
nrm_hwi_fdiv_analysis_result_table
nrm_hwi_fdiv_analysis_pred_plot = plot_dredge_result(nrm_hwi_fdiv_analysis_result_table)
nrm_hwi_fdiv_analysis_pred_plot

nrm_hwi_fdiv_lm = lm(nrm_hwi_fdiv_analysis_formula, nrm_hwi_fdiv_analysis_data)
moran.test(nrm_hwi_fdiv_lm$residuals, nb2listw(analysis_data_neighbours))

    Moran I test under randomisation

data:  nrm_hwi_fdiv_lm$residuals  
weights: nb2listw(analysis_data_neighbours)    

Moran I statistic standard deviate = 7.0294, p-value = 0.000000000001037
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.505183959      -0.003257329       0.005231738 
moran.test(nrm_hwi_fdiv_lm$residuals, nb2listw(analysis_data_nmds_neighbours))

    Moran I test under randomisation

data:  nrm_hwi_fdiv_lm$residuals  
weights: nb2listw(analysis_data_nmds_neighbours)    

Moran I statistic standard deviate = 3.6271, p-value = 0.0001433
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.245547978      -0.003257329       0.004705532 
nrm_hwi_fdiv_spatial_model = spatial_model(nrm_hwi_fdiv_analysis_formula, correlation_function_fdiv())
moran.test(nrm_hwi_fdiv_spatial_model$residuals, nb2listw(analysis_data_neighbours))

    Moran I test under randomisation

data:  nrm_hwi_fdiv_spatial_model$residuals  
weights: nb2listw(analysis_data_neighbours)    

Moran I statistic standard deviate = 8.1492, p-value < 0.00000000000000022
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.587846115      -0.003257329       0.005261332 
moran.test(nrm_hwi_fdiv_spatial_model$residuals, nb2listw(analysis_data_nmds_neighbours))

    Moran I test under randomisation

data:  nrm_hwi_fdiv_spatial_model$residuals  
weights: nb2listw(analysis_data_nmds_neighbours)    

Moran I statistic standard deviate = 3.5151, p-value = 0.0002198
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.238537056      -0.003257329       0.004731648 
nrm_hwi_fdiv_analysis_pred_spatial_plot = plot_spatial_result(nrm_hwi_fdiv_spatial_model)
Joining with `by = join_by(explanatory)`
nrm_hwi_fdiv_analysis_pred_spatial_plot

Mass - FDiv

Standardised

std_mass_fdiv_analysis_geo_plot = geom_map_std(geom_sf(data = analysis_data, aes(color = mass_fdiv_standard, geometry = geometry)), 'Mass FDiv')
std_mass_fdiv_analysis_geo_plot

std_mass_fdiv_analysis_data = model_data(analysis_data[!is.na(analysis_data$mass_fdiv_standard),], 'mass_fdiv_standard')
std_mass_fdiv_analysis_formula = create_formula('mass_fdiv_standard')
std_mass_fdiv_analysis_result <- model_average(std_mass_fdiv_analysis_formula, std_mass_fdiv_analysis_data)
Fixed term is "(Intercept)"
std_mass_fdiv_analysis_result_table = model_summary(std_mass_fdiv_analysis_result)
std_mass_fdiv_analysis_result_table
std_mass_fdiv_analysis_pred_plot = plot_dredge_result(std_mass_fdiv_analysis_result_table)
std_mass_fdiv_analysis_pred_plot

std_mass_fdiv_lm = lm(std_mass_fdiv_analysis_formula, std_mass_fdiv_analysis_data)
moran.test(std_mass_fdiv_lm$residuals, nb2listw(analysis_data_neighbours))

    Moran I test under randomisation

data:  std_mass_fdiv_lm$residuals  
weights: nb2listw(analysis_data_neighbours)    

Moran I statistic standard deviate = 7.4467, p-value = 0.00000000000004785
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.536475629      -0.003257329       0.005253273 
moran.test(std_mass_fdiv_lm$residuals, nb2listw(analysis_data_nmds_neighbours))

    Moran I test under randomisation

data:  std_mass_fdiv_lm$residuals  
weights: nb2listw(analysis_data_nmds_neighbours)    

Moran I statistic standard deviate = 4.7957, p-value = 0.0000008107
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.326373879      -0.003257329       0.004724537 
std_mass_fdiv_spatial_model = spatial_model(std_mass_fdiv_analysis_formula, correlation_function_fdiv())
moran.test(std_mass_fdiv_spatial_model$residuals, nb2listw(analysis_data_neighbours))

    Moran I test under randomisation

data:  std_mass_fdiv_spatial_model$residuals  
weights: nb2listw(analysis_data_neighbours)    

Moran I statistic standard deviate = 7.9698, p-value = 0.0000000000000007945
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.574414910      -0.003257329       0.005253707 
moran.test(std_mass_fdiv_spatial_model$residuals, nb2listw(analysis_data_nmds_neighbours))

    Moran I test under randomisation

data:  std_mass_fdiv_spatial_model$residuals  
weights: nb2listw(analysis_data_nmds_neighbours)    

Moran I statistic standard deviate = 5.3014, p-value = 0.00000005745
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.361152294      -0.003257329       0.004724919 
std_mass_fdiv_analysis_pred_spatial_plot = plot_spatial_result(std_mass_fdiv_spatial_model)
Joining with `by = join_by(explanatory)`
std_mass_fdiv_analysis_pred_spatial_plot

Normalised

nrm_mass_fdiv_analysis_geo_plot = geom_map_nrm(geom_sf(data = analysis_data, aes(color = mass_fdiv_normal, geometry = geometry)), 'Mass FDiv')
nrm_mass_fdiv_analysis_geo_plot

nrm_mass_fdiv_analysis_data = model_data(analysis_data[!is.na(analysis_data$mass_fdiv_normal),], 'mass_fdiv_normal')
nrm_mass_fdiv_analysis_formula = create_formula('mass_fdiv_normal')
nrm_mass_fdiv_analysis_result = model_average(nrm_mass_fdiv_analysis_formula, nrm_mass_fdiv_analysis_data)
Fixed term is "(Intercept)"
nrm_mass_fdiv_analysis_result_table = model_summary(nrm_mass_fdiv_analysis_result)
nrm_mass_fdiv_analysis_result_table
nrm_mass_fdiv_analysis_pred_plot = plot_dredge_result(nrm_mass_fdiv_analysis_result_table)
nrm_mass_fdiv_analysis_pred_plot

nrm_mass_fdiv_lm = lm(nrm_mass_fdiv_analysis_formula, nrm_mass_fdiv_analysis_data)
moran.test(nrm_mass_fdiv_lm$residuals, nb2listw(analysis_data_neighbours))

    Moran I test under randomisation

data:  nrm_mass_fdiv_lm$residuals  
weights: nb2listw(analysis_data_neighbours)    

Moran I statistic standard deviate = 6.9903, p-value = 0.000000000001372
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.503538387      -0.003257329       0.005256267 
moran.test(nrm_mass_fdiv_lm$residuals, nb2listw(analysis_data_nmds_neighbours))

    Moran I test under randomisation

data:  nrm_mass_fdiv_lm$residuals  
weights: nb2listw(analysis_data_nmds_neighbours)    

Moran I statistic standard deviate = 2.9195, p-value = 0.001753
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.197472475      -0.003257329       0.004727179 
nrm_mass_fdiv_spatial_model = spatial_model(nrm_mass_fdiv_analysis_formula, correlation_function_fdiv())
moran.test(nrm_mass_fdiv_spatial_model$residuals, nb2listw(analysis_data_neighbours))

    Moran I test under randomisation

data:  nrm_mass_fdiv_spatial_model$residuals  
weights: nb2listw(analysis_data_neighbours)    

Moran I statistic standard deviate = 7.5406, p-value = 0.0000000000000234
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.543587169      -0.003257329       0.005259210 
moran.test(nrm_mass_fdiv_spatial_model$residuals, nb2listw(analysis_data_nmds_neighbours))

    Moran I test under randomisation

data:  nrm_mass_fdiv_spatial_model$residuals  
weights: nb2listw(analysis_data_nmds_neighbours)    

Moran I statistic standard deviate = 3.2302, p-value = 0.0006185
alternative hypothesis: greater
sample estimates:
Moran I statistic       Expectation          Variance 
      0.218896280      -0.003257329       0.004729776 
nrm_mass_fdiv_analysis_pred_spatial_plot = plot_spatial_result(nrm_mass_fdiv_spatial_model)
Joining with `by = join_by(explanatory)`
nrm_mass_fdiv_analysis_pred_spatial_plot

Create plot of differences in process response

fig = function(trait_name, response_type, geo_plot, predictor_plot) {
  grid.arrange(
    arrangeGrob(grid::textGrob(trait_name, x = 0.02, hjust = 0, gp=gpar(fontface="bold"))),
    arrangeGrob(grid::textGrob(paste('A)', response_type,'response by city'), x = 0.02, hjust = 0, gp=gpar(fontface="bold"))),
    geo_plot,
    arrangeGrob(grid::textGrob(paste('B)', response_type, 'response predictors'), x = 0.02, hjust = 0, gp=gpar(fontface="bold"))),
    predictor_plot + theme(legend.position = 'bottom') + guides(colour = guide_legend(nrow=2, byrow=TRUE)),
    heights = c(0.25, 0.25, 4, 0.25, 3),
    nrow = 5
  )
}


fig('MNTD', 'Standardised', std_mntd_analysis_geo_plot, std_mntd_analysis_pred_plot)

MNTD

jpeg(filename(FIGURES_OUTPUT_DIR, 'figure2_std_mntd.jpg'), width = 200, height = 220, units = 'mm', res = 300)
grid.arrange(
  arrangeGrob(fig('MNTD', 'Standardised', std_mntd_analysis_geo_plot, std_mntd_analysis_pred_plot)),
  ncol = 1
  )
dev.off()
null device 
          1 
jpeg(filename(FIGURES_OUTPUT_DIR, 'figure2_nrm_mntd.jpg'), width = 200, height = 220, units = 'mm', res = 300)
grid.arrange(
  arrangeGrob(fig('MNTD', 'Normalised', nrm_mntd_analysis_geo_plot, nrm_mntd_analysis_pred_plot)),
  ncol = 1
  )
dev.off()
null device 
          1 

Beak Width

jpeg(filename(FIGURES_OUTPUT_DIR, 'figure2_std_beak_width.jpg'), width = 200, height = 220, units = 'mm', res = 300)
grid.arrange(
  arrangeGrob(fig('Beak Width', 'Standardised', std_gape_fdiv_analysis_geo_plot, std_gape_fdiv_analysis_pred_plot)),
  ncol = 1
  )
dev.off()
null device 
          1 
jpeg(filename(FIGURES_OUTPUT_DIR, 'figure2_nrm_beak_width.jpg'), width = 200, height = 220, units = 'mm', res = 300)
grid.arrange(
  arrangeGrob(fig('Beak Width', 'Normalised', nrm_gape_fdiv_analysis_geo_plot, nrm_gape_fdiv_analysis_pred_plot)),
  ncol = 1
  )
dev.off()
null device 
          1 

HWI

jpeg(filename(FIGURES_OUTPUT_DIR, 'figure2_std_hwi.jpg'), width = 200, height = 220, units = 'mm', res = 300)
grid.arrange(
  arrangeGrob(fig('HWI (Hand-wing Index)', 'Standardised', std_hwi_fdiv_analysis_geo_plot, std_hwi_fdiv_analysis_pred_plot)),
  ncol = 1
  )
dev.off()
null device 
          1 
jpeg(filename(FIGURES_OUTPUT_DIR, 'figure2_nrm_hwi.jpg'), width = 200, height = 220, units = 'mm', res = 300)
grid.arrange(
  arrangeGrob(fig('HWI (Hand-wing Index)', 'Normalised', nrm_hwi_fdiv_analysis_geo_plot, nrm_hwi_fdiv_analysis_pred_plot)),
  ncol = 1
  )
dev.off()
null device 
          1 

Mass

jpeg(filename(FIGURES_OUTPUT_DIR, 'figure2_std_mass.jpg'), width = 200, height = 220, units = 'mm', res = 300)
grid.arrange(
  arrangeGrob(fig('Mass', 'Standardised', std_mass_fdiv_analysis_geo_plot, std_mass_fdiv_analysis_pred_plot)),
  ncol = 1
  )
dev.off()
null device 
          1 
jpeg(filename(FIGURES_OUTPUT_DIR, 'figure2_nrm_mass.jpg'), width = 200, height = 220, units = 'mm', res = 300)
grid.arrange(
  arrangeGrob(fig('Mass', 'Normalised', nrm_mass_fdiv_analysis_geo_plot, nrm_mass_fdiv_analysis_pred_plot)),
  ncol = 1
  )
dev.off()
null device 
          1 

Compare to spatial model

plot_grid(
  plot_grid(
    ggdraw() + 
    draw_label(
      "Spatial Model (standardised)",
      fontface = 'bold',
      x = 0,
      hjust = 0
    ),
    ggdraw() + 
    draw_label(
      "Spatial Model (normalised)",
      fontface = 'bold',
      x = 0,
      hjust = 0
    ),
    ggdraw() + 
    draw_label(
      "Dredge Result (standardised)",
      fontface = 'bold',
      x = 0,
      hjust = 0
    ),
    ggdraw() + 
    draw_label(
      "Dredge Result (normalised)",
      fontface = 'bold',
      x = 0,
      hjust = 0
    ),
    nrow = 1
  ),
  plot_grid(
    std_mntd_analysis_pred_spatial_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-3, 3)) + ylab(''), 
    nrm_mntd_analysis_pred_spatial_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-1, 1)) + ylab(''), 
    std_mntd_analysis_pred_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-3, 3)) + ylab(''), 
    nrm_mntd_analysis_pred_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-1, 1)) + ylab(''), 
    nrow = 1
  ) + draw_label("MNTD", size = 16, angle = 90, x = 0.01, y = 0.5),
  plot_grid(
    std_gape_fdiv_analysis_pred_spatial_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-3, 3)) + ylab(''), 
    nrm_gape_fdiv_analysis_pred_spatial_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-1, 1)) + ylab(''), 
    std_gape_fdiv_analysis_pred_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-3, 3)) + ylab(''),  
    nrm_gape_fdiv_analysis_pred_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-1, 1)) + ylab(''), 
    nrow = 1
  ) + draw_label("Beak Width", size = 16, angle = 90, x = 0.01, y = 0.5),
  plot_grid(
    std_hwi_fdiv_analysis_pred_spatial_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-3, 3)) + ylab(''), 
    nrm_hwi_fdiv_analysis_pred_spatial_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-1, 1)) + ylab(''), 
    std_hwi_fdiv_analysis_pred_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-3, 3)) + ylab(''),  
    nrm_hwi_fdiv_analysis_pred_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-1, 1)) + ylab(''), 
    nrow = 1
  ) + draw_label("HWI", size = 16, angle = 90, x = 0.01, y = 0.5),
  plot_grid(
    std_mass_fdiv_analysis_pred_spatial_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-3, 3)) + ylab(''), 
    nrm_mass_fdiv_analysis_pred_spatial_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-1, 1)) + ylab(''), 
    std_mass_fdiv_analysis_pred_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-3, 3)) + ylab(''),  
    nrm_mass_fdiv_analysis_pred_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-1, 1)) + ylab(''), 
    nrow = 1
  ) + draw_label("Mass", size = 16, angle = 90, x = 0.01, y = 0.5), 
  nrow = 5, rel_heights = c(1, 4, 4, 4, 4)
)
`geom_line()`: Each group consists of only one observation.
ℹ Do you need to adjust the group aesthetic?`geom_line()`: Each group consists of only one observation.
ℹ Do you need to adjust the group aesthetic?`geom_line()`: Each group consists of only one observation.
ℹ Do you need to adjust the group aesthetic?`geom_line()`: Each group consists of only one observation.
ℹ Do you need to adjust the group aesthetic?`geom_line()`: Each group consists of only one observation.
ℹ Do you need to adjust the group aesthetic?`geom_line()`: Each group consists of only one observation.
ℹ Do you need to adjust the group aesthetic?`geom_line()`: Each group consists of only one observation.
ℹ Do you need to adjust the group aesthetic?`geom_line()`: Each group consists of only one observation.
ℹ Do you need to adjust the group aesthetic?`geom_line()`: Each group consists of only one observation.
ℹ Do you need to adjust the group aesthetic?`geom_line()`: Each group consists of only one observation.
ℹ Do you need to adjust the group aesthetic?`geom_line()`: Each group consists of only one observation.
ℹ Do you need to adjust the group aesthetic?`geom_line()`: Each group consists of only one observation.
ℹ Do you need to adjust the group aesthetic?`geom_line()`: Each group consists of only one observation.
ℹ Do you need to adjust the group aesthetic?`geom_line()`: Each group consists of only one observation.
ℹ Do you need to adjust the group aesthetic?`geom_line()`: Each group consists of only one observation.
ℹ Do you need to adjust the group aesthetic?`geom_line()`: Each group consists of only one observation.
ℹ Do you need to adjust the group aesthetic?
ggsave(filename(FIGURES_OUTPUT_DIR, 'process_response_vs_spatial.jpg'), width = 4000, height = 3200, units = 'px')

Compare metrics against each other

ggplot(analysis_data, aes(x = beak_width_fdiv_standard, y = mntd_standard, colour = core_realm)) + 
  geom_point() +
  ylab("MNTD") + 
  xlab("Beak Width FDiv") +
  theme_bw() + labs(color = "Realm")

ggplot(analysis_data, aes(x = hwi_fdiv_standard, y = mntd_standard, colour = core_realm)) + 
  geom_point() +
  ylab("MNTD") + 
  xlab("HWI FDiv") +
  theme_bw() + labs(color = "Realm")

ggplot(analysis_data, aes(x = hwi_fdiv_standard, y = beak_width_fdiv_standard, colour = core_realm)) + 
  geom_point() +
  ylab("Beak Width FDiv") + 
  xlab("HWI FDiv") +
  theme_bw() + labs(color = "Realm")

mntd_fdiv_analysis = analysis_data %>% 
  dplyr::select(city_id,  mntd_standard, hwi_fdiv_standard, beak_width_fdiv_standard, mass_fdiv_standard) %>%
  left_join(community_summary) %>%
  mutate(urban_pool_perc = urban_pool_size * 100 / regional_pool_size)
Joining with `by = join_by(city_id)`
mntd_fdiv_analysis
ggpairs(mntd_fdiv_analysis %>% dplyr::select(mntd_standard, hwi_fdiv_standard, beak_width_fdiv_standard, mass_fdiv_standard, regional_pool_size, urban_pool_size, urban_pool_perc), columnLabels = c('MNTD', 'HWI FD', 'Bk FD', 'Mss FD', 'Region Rich.', 'Urban Rich.', '% Urban'))
ggsave(filename(FIGURES_OUTPUT_DIR, 'appendix_standarised_correlation.jpg'))
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Intraction term between introduced species and realm

create_interaction_formula = function(response_var) {
  as.formula(paste(response_var, '~ core_realm * has_introduced_species'))
}
interaction_type_labels = function(p) {
  explanatory_levels = all_explanatories[all_explanatories %in% p$explanatory]
  p$explanatory <- factor(p$explanatory, levels = explanatory_levels)
  
  p$type <- 'Interaction'
  p$type[p$explanatory %in% c('core_realmNearctic', 'core_realmNeotropic', 'core_realmAfrotropic', 'core_realmIndomalayan', 'core_realmAustralasia')] <- 'Realm'
  p$type[p$explanatory %in% c('has_introduced_speciesNo introduced species', 'has_introduced_speciesIntroduced species')] <- 'Introduced species'
  p
}
plot_dredge_interaction_result = function(result_table, mu = 0) {
  p = result_table[result_table$model == 'full',]
  p = interaction_type_labels(p)

  ggplot(p, aes(y = explanatory, x = estimate, colour = type)) + 
    geom_line() +
    geom_point() +
    geom_errorbar(aes(xmin=estimate-error, xmax=estimate+error), width=.2,
                   position=position_dodge(0.05)) +
    scale_y_discrete(
      limits = rev(levels(p$explanatory)), 
      labels = explanatory_labels) +
    scale_colour_manual(
      values = c(realm_colour, interaction_colour, introduced_species_colour), 
      breaks = c('Realm', 'Interaction', 'Introduced species')) +
    theme_bw() +
    geom_vline(xintercept=mu, linetype="dotted") +
    guides(colour=guide_legend(title="Predictor type")) + xlab('Difference in response from 0\nhabitat filtering (< 0) and competitive interactions (> 0)\n± Standard Error') + ylab('Predictor') +
    theme(legend.justification = "top")
}

MNTD

Standardised

std_mntd_interaction_formula = create_interaction_formula('mntd_standard')
std_mntd_interaction_result = model_average(std_mntd_interaction_formula, std_mntd_analysis_data)
Fixed term is "(Intercept)"
std_mntd_interaction_result_table = model_summary(std_mntd_interaction_result)
std_mntd_interaction_result_table
std_mntd_interaction_pred_plot = plot_dredge_interaction_result(std_mntd_interaction_result_table)
std_mntd_interaction_pred_plot
ggsave(filename(FIGURES_OUTPUT_DIR, 'figure4_std_mntd_interaction.jpg'))
Saving 7.29 x 4.51 in image

Normalised

nrm_mntd_interaction_formula = create_interaction_formula('mntd_normal')
nrm_mntd_interaction_result = model_average(nrm_mntd_interaction_formula, nrm_mntd_analysis_data)
Fixed term is "(Intercept)"
nrm_mntd_interaction_result_table = model_summary(nrm_mntd_interaction_result)
nrm_mntd_interaction_result_table
nrm_mntd_interaction_pred_plot = plot_dredge_interaction_result(nrm_mntd_interaction_result_table)
nrm_mntd_interaction_pred_plot
ggsave(filename(FIGURES_OUTPUT_DIR, 'figure4_nrm_mntd_interaction.jpg'))
Saving 7.29 x 4.51 in image

Beak Width

Standardised

std_gape_interaction_formula = create_interaction_formula('beak_width_fdiv_standard')
std_gape_interaction_result = model_average(std_gape_interaction_formula, std_gape_fdiv_analysis_data)
Fixed term is "(Intercept)"
std_gape_interaction_result_table = model_summary(std_gape_interaction_result)
std_mntd_interaction_result_table
std_gape_interaction_pred_plot = plot_dredge_interaction_result(std_gape_interaction_result_table)
std_gape_interaction_pred_plot
ggsave(filename(FIGURES_OUTPUT_DIR, 'figure4_std_beak_width_interaction.jpg'))
Saving 7.29 x 4.51 in image

Normalised

nrm_gape_interaction_formula = create_interaction_formula('beak_width_fdiv_normal')
nrm_gape_interaction_result = model_average(nrm_gape_interaction_formula, nrm_gape_fdiv_analysis_data)
Fixed term is "(Intercept)"
nrm_gape_interaction_result_table = model_summary(nrm_gape_interaction_result)
nrm_gape_interaction_result_table
nrm_gape_interaction_pred_plot = plot_dredge_interaction_result(nrm_gape_interaction_result_table)
nrm_gape_interaction_pred_plot
ggsave(filename(FIGURES_OUTPUT_DIR, 'figure4_nrm_beak_width_interaction.jpg'))
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HWI

Standardised

std_hwi_interaction_formula = create_interaction_formula('hwi_fdiv_standard')
std_hwi_interaction_result = model_average(std_hwi_interaction_formula, std_hwi_fdiv_analysis_data)
Fixed term is "(Intercept)"
std_hwi_interaction_result_table = model_summary(std_hwi_interaction_result)
std_hwi_interaction_result_table
std_hwi_interaction_pred_plot = plot_dredge_interaction_result(std_hwi_interaction_result_table)
std_hwi_interaction_pred_plot
ggsave(filename(FIGURES_OUTPUT_DIR, 'figure4_std_hwi_interaction.jpg'))
Saving 7.29 x 4.51 in image

Normalised

nrm_hwi_interaction_formula = create_interaction_formula('hwi_fdiv_normal')
nrm_hwi_interaction_result = model_average(nrm_hwi_interaction_formula, nrm_hwi_fdiv_analysis_data)
Fixed term is "(Intercept)"
nrm_hwi_interaction_result_table = model_summary(nrm_hwi_interaction_result)
nrm_hwi_interaction_result_table
nrm_hwi_interaction_pred_plot = plot_dredge_interaction_result(nrm_hwi_interaction_result_table)
nrm_hwi_interaction_pred_plot
ggsave(filename(FIGURES_OUTPUT_DIR, 'figure4_nrm_hwi_interaction.jpg'))
Saving 7.29 x 4.51 in image

Mass

Standardised

std_mass_interaction_formula = create_interaction_formula('mass_fdiv_standard')
std_mass_interaction_result = model_average(std_mass_interaction_formula, std_mass_fdiv_analysis_data)
Fixed term is "(Intercept)"
std_mass_interaction_result_table = model_summary(std_mass_interaction_result)
std_mass_interaction_result_table
std_mass_interaction_pred_plot = plot_dredge_interaction_result(std_mass_interaction_result_table)
std_mass_interaction_pred_plot
ggsave(filename(FIGURES_OUTPUT_DIR, 'figure4_std_mass_interaction.jpg'))
Saving 7.29 x 4.51 in image

Normalised

nrm_mass_interaction_formula = create_interaction_formula('mass_fdiv_normal')
nrm_mass_interaction_result = model_average(nrm_mass_interaction_formula, nrm_mass_fdiv_analysis_data)
Fixed term is "(Intercept)"
nrm_mass_interaction_result_table = model_summary(nrm_mass_interaction_result)
nrm_mass_interaction_result_table
nrm_mass_interaction_pred_plot = plot_dredge_interaction_result(nrm_mass_interaction_result_table)
nrm_mass_interaction_pred_plot
ggsave(filename(FIGURES_OUTPUT_DIR, 'figure4_nrm_mass_interaction.jpg'))
Saving 7.29 x 4.51 in image

---
title: "Metrics for assessing community assembly processes"
output: html_notebook
bibliography: ../ref.bib  
---

```{r}
source('../env.R')
```

```{r}
community_data = read_csv(filename(COMMUNITY_OUTPUT_DIR, 'community_assembly_metrics_using_relative_abundance.csv'))
head(community_data)
colnames(community_data)
```

```{r}
min(community_data$mntd_standard)
max(community_data$mntd_standard)
min(community_data$beak_width_fdiv_standard)
max(community_data$beak_width_fdiv_standard)
min(community_data$hwi_fdiv_standard)
max(community_data$hwi_fdiv_standard)
min(community_data$mass_fdiv_standard)
max(community_data$mass_fdiv_standard)
```

```{r}
min(community_data$mntd_normal)
max(community_data$mntd_normal)
min(community_data$beak_width_fdiv_normal)
max(community_data$beak_width_fdiv_normal)
min(community_data$hwi_fdiv_normal)
max(community_data$hwi_fdiv_normal)
min(community_data$mass_fdiv_normal)
max(community_data$mass_fdiv_normal)
```

Join on realms
```{r}
city_to_realm = read_csv(filename(CITY_DATA_OUTPUT_DIR, 'realms.csv'))
community_data_with_realm = left_join(community_data, city_to_realm)
```

Cities as points
```{r}
city_points = st_centroid(read_sf(filename(CITY_DATA_OUTPUT_DIR, 'city_selection.shp'))) %>% left_join(community_data_with_realm)
city_points_coords = st_coordinates(city_points)
city_points$latitude = city_points_coords[,1]
city_points$longitude = city_points_coords[,2]
```
  
```{r}
world_map = read_country_boundaries()
```

Load community data, and create long format version
```{r}
communities = read_csv(filename(COMMUNITY_OUTPUT_DIR, 'communities_for_analysis.csv'))
communities
```

```{r}
community_summary = communities %>% group_by(city_id) %>% summarise(regional_pool_size = n(), urban_pool_size = sum(relative_abundance_proxy > 0))
community_summary
```

Load trait data
```{r}
traits = read_csv(filename(TAXONOMY_OUTPUT_DIR, 'traits_ebird.csv'))
head(traits)
```

Load spatial var
```{r}
spatial_var = read_csv(filename(COMMUNITY_OUTPUT_DIR, 'spatial_var.csv')) %>% filter(city_id %in% community_summary$city_id)
spatial_var
```

# Summary metrics by Realm
```{r}
test_required_values = function(name, df) {
  cat(paste(
    test_value_wilcox(paste(name, 'Std: MNTD'), df$mntd_standard),
    test_value_wilcox(paste(name, 'Std: Beak Width FDiv'), df$beak_width_fdiv_standard),
    test_value_wilcox(paste(name, 'Std: HWI FDiv'), df$hwi_fdiv_standard),
    test_value_wilcox(paste(name, 'Std: Mass FDiv'), df$mass_fdiv_standard),
    
    test_value_wilcox(paste(name, 'Norm: MNTD'), df$mntd_normal, mu = 0.5),
    test_value_wilcox(paste(name, 'Norm: Beak Width FDiv'), df$beak_width_fdiv_normal, mu = 0.5),
    test_value_wilcox(paste(name, 'Norm: HWI FDiv'), df$hwi_fdiv_normal, mu = 0.5),
    test_value_wilcox(paste(name, 'Norm: Mass FDiv'), df$mass_fdiv_normal, mu = 0.5),
    paste('N', nrow(df)),
    sep = "\n"))
}
```

```{r}
test_required_values('Global', community_data_with_realm)
```

```{r}
unique(community_data_with_realm$core_realm)
```

```{r}
test_required_values('Nearctic', community_data_with_realm[community_data_with_realm$core_realm == 'Nearctic',])
```

```{r}
test_required_values('Neotropic', community_data_with_realm[community_data_with_realm$core_realm == 'Neotropic',])
```

```{r}
test_required_values('Palearctic', community_data_with_realm[community_data_with_realm$core_realm == 'Palearctic',])
```

```{r}
test_required_values('Afrotropic', community_data_with_realm[community_data_with_realm$core_realm == 'Afrotropic',])
```

```{r}
test_required_values('Indomalayan', community_data_with_realm[community_data_with_realm$core_realm == 'Indomalayan',])
```

```{r}
test_required_values('Australasia', community_data_with_realm[community_data_with_realm$core_realm == 'Australasia',])
```

## How significant are those differences:
```{r}
print('Standard')
kruskal.test(mntd_standard~core_realm, data = community_data_with_realm)
pairwise.wilcox.test(community_data_with_realm$mntd_standard, community_data_with_realm$core_realm)
print('Normal')
kruskal.test(mntd_normal~core_realm, data = community_data_with_realm)
pairwise.wilcox.test(community_data_with_realm$mntd_normal, community_data_with_realm$core_realm)
```

```{r}
print('Standard')
kruskal.test(beak_width_fdiv_standard~core_realm, data = community_data_with_realm)
pairwise.wilcox.test(community_data_with_realm$beak_width_fdiv_standard, community_data_with_realm$core_realm)
print('Normal')
kruskal.test(beak_width_fdiv_standard~core_realm, data = community_data_with_realm)
pairwise.wilcox.test(community_data_with_realm$beak_width_fdiv_standard, community_data_with_realm$core_realm)
```

```{r}
print('Standard')
kruskal.test(hwi_fdiv_standard~core_realm, data = community_data_with_realm)
pairwise.wilcox.test(community_data_with_realm$hwi_fdiv_standard, community_data_with_realm$core_realm)
print('Normal')
kruskal.test(hwi_fdiv_normal~core_realm, data = community_data_with_realm)
pairwise.wilcox.test(community_data_with_realm$hwi_fdiv_normal, community_data_with_realm$core_realm)
```

```{r}
print('Standard')
kruskal.test(mass_fdiv_standard~core_realm, data = community_data_with_realm)
pairwise.wilcox.test(community_data_with_realm$mass_fdiv_standard, community_data_with_realm$core_realm)
print('Normal')
kruskal.test(mass_fdiv_normal~core_realm, data = community_data_with_realm)
pairwise.wilcox.test(community_data_with_realm$mass_fdiv_normal, community_data_with_realm$core_realm)
```
# What families exist in which realms?
```{r}
communities %>% 
  left_join(city_to_realm) %>% 
  mutate(family = gsub( " .*$", "", ebird_species_name)) %>%
  dplyr::select(family, core_realm) %>%
  distinct() %>%
  arrange(core_realm)
```

## Total urban families
```{r}
communities %>% 
  mutate(family = gsub( " .*$", "", ebird_species_name)) %>%
  dplyr::select(family) %>%
  distinct() %>%
  arrange()
```

of which urban
```{r}
communities %>% 
  filter(relative_abundance_proxy > 0) %>%
  mutate(family = gsub( " .*$", "", ebird_species_name)) %>%
  dplyr::select(family) %>%
  distinct() %>%
  arrange()
```

# Summary metrics by introduced species
```{r}
communities = read_csv(filename(COMMUNITY_OUTPUT_DIR, 'communities_for_analysis.csv'))
city_introduced_species = communities %>% group_by(city_id) %>% summarise(number_of_species = n()) %>% left_join(
  communities %>% group_by(city_id) %>% filter(origin == 'Introduced') %>% summarise(number_of_introduced_species = n())
) %>% replace_na(list(number_of_introduced_species = 0))

community_data_with_introductions = left_join(community_data, city_introduced_species)
community_data_with_introductions$has_introduced_species = community_data_with_introductions$number_of_introduced_species > 0
community_data_with_introductions
```

```{r}
communities %>% 
  filter(origin == 'Introduced') %>%
  dplyr::select(ebird_species_name) %>%
  group_by(ebird_species_name) %>%
  summarise(total_cities = n()) %>%
  arrange(desc(total_cities))
```

```{r}
community_data_with_introductions[,c('mntd_standard', 'has_introduced_species')]
```

```{r}
community_data_with_introductions %>% group_by(has_introduced_species) %>% summarise(
  total_cities = n(), 
  
  mean_mntd_std = mean(mntd_standard, na.rm = T),
  median_mntd_std = median(mntd_standard, na.rm = T),
  sd_mntd_std = sd(mntd_standard, na.rm = T),
  
  mean_mass_fdiv_std = mean(mass_fdiv_standard, na.rm = T),
  median_mass_fdiv_std = median(mass_fdiv_standard, na.rm = T),
  sd_mass_fdiv_std = sd(mass_fdiv_standard, na.rm = T),
  
  mean_gape_width_fdiv_std = mean(beak_width_fdiv_standard, na.rm = T),
  median_gape_width_fdiv_std = median(beak_width_fdiv_standard, na.rm = T),
  sd_gape_width_fdiv_std = sd(beak_width_fdiv_standard, na.rm = T),
  
  mean_handwing_index_fdiv_std = mean(hwi_fdiv_standard, na.rm = T),
  median_handwing_index_fdiv_std = median(hwi_fdiv_standard, na.rm = T),
  sd_handwing_index_fdiv_std = sd(hwi_fdiv_standard, na.rm = T)
)
```

## MNTD
```{r}
ggplot(community_data_with_introductions, aes(x = has_introduced_species, y = mntd_standard)) + geom_boxplot()
```
```{r}
ggplot(community_data_with_introductions, aes(x = has_introduced_species, y = mntd_normal)) + geom_boxplot()
```

```{r}
wilcox.test(mntd_standard ~ has_introduced_species, community_data_with_introductions, na.action = 'na.omit')
```

There is a significant difference between the response of cities with introduced species (0.53±0.27) and those without (0.47±0.19) (p-value = 0.02).


```{r}
wilcox.test(mntd_normal ~ has_introduced_species, community_data_with_introductions, na.action = 'na.omit')
```

## Mass FDiv
```{r}
ggplot(community_data_with_introductions, aes(x = has_introduced_species, y = mass_fdiv_standard)) + geom_boxplot()
```

```{r}
ggplot(community_data_with_introductions, aes(x = has_introduced_species, y = mass_fdiv_normal)) + geom_boxplot()
```
```{r}
wilcox.test(mass_fdiv_standard ~ has_introduced_species, community_data_with_introductions, na.action = 'na.omit')
```
There is a significant difference between the response of cities with introduced species (0.57±0.27) and those without (0.73±0.24) (p < 0.0001)

```{r}
wilcox.test(mass_fdiv_normal ~ has_introduced_species, community_data_with_introductions, na.action = 'na.omit')
```

## Beak Gape FDiv
```{r}
ggplot(community_data_with_introductions, aes(x = has_introduced_species, y = beak_width_fdiv_standard)) + geom_boxplot()
```

```{r}
ggplot(community_data_with_introductions, aes(x = has_introduced_species, y = beak_width_fdiv_normal)) + geom_boxplot()
```
```{r}
wilcox.test(beak_width_fdiv_standard ~ has_introduced_species, community_data_with_introductions, na.action = 'na.omit')
```
There is NOT a significant difference between the response of cities with introduced species (0.61±0.30) and those without (0.56±0.27)

```{r}
wilcox.test(beak_width_fdiv_normal ~ has_introduced_species, community_data_with_introductions, na.action = 'na.omit')
```

## HWI FDiv
```{r}
ggplot(community_data_with_introductions, aes(x = has_introduced_species, y = hwi_fdiv_standard)) + geom_boxplot()
```

```{r}
ggplot(community_data_with_introductions, aes(x = has_introduced_species, y = hwi_fdiv_normal)) + geom_boxplot()
```

```{r}
wilcox.test(hwi_fdiv_standard ~ has_introduced_species, community_data_with_introductions, na.action = 'na.omit')
```
There is a significant difference between the response of cities with introduced species (0.49±0.30) and those without (0.79±0.21) (p < 0.0001)

```{r}
wilcox.test(hwi_fdiv_normal ~ has_introduced_species, community_data_with_introductions, na.action = 'na.omit')
```

## What proportion of cities in each realm have introduced species
```{r}
community_data_with_introductions %>% left_join(city_to_realm) %>%
  group_by(core_realm) %>%
  summarise(
    total_cities = n(), 
    total_cities_with_introduced = sum(has_introduced_species), 
    total_cities_without_introduced = n() - sum(has_introduced_species)) %>%
  arrange(core_realm)
```

## Are any introduced species not also present in a city?
```{r}
communities %>% 
  filter(origin == 'Introduced') %>% 
  filter(relative_abundance_proxy < 0.1)
```

## What's the average relative abundance of introduced species compared to native
```{r}
communities %>% 
  group_by(origin) %>% 
  summarise(average_relative_abundance = mean(relative_abundance_proxy))
```

```{r}
communities %>% 
  group_by(origin) %>% 
  filter(relative_abundance_proxy > 0) %>%
  summarise(average_relative_abundance = mean(relative_abundance_proxy))
```

```{r}
communities %>% 
  group_by(origin) %>% 
  summarise(average_relative_abundance = mean(relative_abundance_proxy))
```

# Create analysis data frame for modelling
```{r}
geography = read_csv(filename(CITY_DATA_OUTPUT_DIR, 'geography.csv'))
names(geography)
```

```{r}
analysis_data = community_data_with_realm[,c('city_id', 
       'mntd_standard', 'mass_fdiv_standard', 'beak_width_fdiv_standard', 'hwi_fdiv_standard',
       'mntd_normal', 'mass_fdiv_normal', 'beak_width_fdiv_normal', 'hwi_fdiv_normal',
       'core_realm')] %>% 
  left_join(city_points[,c('city_id', 'latitude', 'longitude')]) %>%
  left_join(community_data_with_introductions[,c('city_id', 'has_introduced_species')]) %>%
  left_join(geography) %>%
  left_join(spatial_var)

analysis_data$abs_latitude = abs(analysis_data$latitude)
analysis_data$core_realm = factor(analysis_data$core_realm, levels = c('Palearctic', 'Nearctic', 'Neotropic', 'Afrotropic', 'Indomalayan', 'Australasia', 'Oceania'))
analysis_data$has_introduced_species = factor(analysis_data$has_introduced_species, level = c('FALSE', 'TRUE'), labels = c('No introduced species', 'Introduced species'))
```

```{r}
model_data = function(df, dependant_var) {
  df[,c(dependant_var, 'core_realm', 'abs_latitude', 'longitude', 'has_introduced_species', 'city_avg_ndvi', 'city_avg_elevation', 'city_avg_temp', 'city_avg_min_monthly_temp', 'city_avg_max_monthly_temp', 'city_avg_monthly_temp', 'city_avg_rainfall', 'city_avg_max_monthly_rainfall', 'city_avg_min_monthly_rainfall', 'city_avg_soil_moisture', 'city_max_elev', 'city_min_elev', 'city_elev_range', 'region_20km_avg_ndvi', 'region_20km_avg_elevation', 'region_20km_avg_soil_moisture', 'region_20km_max_elev', 'region_20km_min_elev', 'region_20km_elev_range', 'region_50km_avg_ndvi', 'region_50km_avg_elevation', 'region_50km_avg_soil_moisture', 'region_50km_max_elev', 'region_50km_min_elev', 'region_50km_elev_range')]
}
model_data(analysis_data, 'mntd_standard')
model_data(analysis_data, 'mntd_normal')
```

```{r}
names(analysis_data)
```

## NMDS Spatial Helpers
```{r}
analysis_data_nmds_coords = analysis_data[,c('NMDS1', 'NMDS2')]
coordinates(analysis_data_nmds_coords)  = ~ NMDS1 + NMDS2

analysis_data_nmds_nearneigh <- knearneigh(analysis_data_nmds_coords)
analysis_data_nmds_neighbours <- knn2nb(analysis_data_nmds_nearneigh)
```

### Polygons around realms in NMDS plot
```{r}
cities_to_realms_nmds = read_csv(filename(CITY_DATA_OUTPUT_DIR, 'realms.csv')) %>% left_join(analysis_data) %>% filter(!is.na(NMDS1))
unique(cities_to_realms_nmds$core_realm)
realm_nmds_neartic_polygon = cities_to_realms_nmds %>% filter(core_realm == 'Nearctic') %>% slice(chull(NMDS1, NMDS2))
realm_nmds_neotropic_polygon = cities_to_realms_nmds %>% filter(core_realm == 'Neotropic') %>% slice(chull(NMDS1, NMDS2))
realm_nmds_palearctic_polygon = cities_to_realms_nmds %>% filter(core_realm == 'Palearctic') %>% slice(chull(NMDS1, NMDS2))
realm_nmds_afrotropic_polygon = cities_to_realms_nmds %>% filter(core_realm == 'Afrotropic') %>% slice(chull(NMDS1, NMDS2))
realm_nmds_indomalayan_polygon = cities_to_realms_nmds %>% filter(core_realm == 'Indomalayan') %>% slice(chull(NMDS1, NMDS2))
realm_nmds_australasia_polygon = cities_to_realms_nmds %>% filter(core_realm == 'Australasia') %>% slice(chull(NMDS1, NMDS2))

polygon_line_type = 'dashed'
polygon_linewidth = 0.4

with_realms_nmds = function(g) {
  g + 
    geom_polygon(data = realm_nmds_neartic_polygon, linewidth = polygon_linewidth, linetype = polygon_line_type, alpha = 0) +
    geom_polygon(data = realm_nmds_neotropic_polygon, linewidth = polygon_linewidth, linetype = polygon_line_type, alpha = 0) +
    geom_polygon(data = realm_nmds_palearctic_polygon, linewidth = polygon_linewidth, linetype = polygon_line_type, alpha = 0) +
    geom_polygon(data = realm_nmds_afrotropic_polygon, linewidth = polygon_linewidth, linetype = polygon_line_type, alpha = 0) +
    geom_polygon(data = realm_nmds_indomalayan_polygon, linewidth = polygon_linewidth, linetype = polygon_line_type, alpha = 0) +
    geom_polygon(data = realm_nmds_australasia_polygon, linewidth = polygon_linewidth, linetype = polygon_line_type, alpha = 0)
}
```

## Lat Long Spatial Helpers
```{r}
analysis_data_latlong_coords = analysis_data[,c('longitude', 'latitude')]
coordinates(analysis_data_latlong_coords)  = ~ longitude + latitude

analysis_data_coords_nearneigh <- knearneigh(analysis_data_latlong_coords, longlat = TRUE)
analysis_data_neighbours <- knn2nb(analysis_data_coords_nearneigh)
```

### Polygons around realms in lat long plot
```{r}
cities_to_realms_latlong = read_csv(filename(CITY_DATA_OUTPUT_DIR, 'realms.csv')) %>% left_join(analysis_data) %>% filter(!is.na(latitude))
unique(cities_to_realms_latlong$core_realm)
realm_latlong_neartic_polygon = cities_to_realms_latlong %>% filter(core_realm == 'Nearctic') %>% slice(chull(latitude, longitude))
realm_latlong_neotropic_polygon = cities_to_realms_latlong %>% filter(core_realm == 'Neotropic') %>% slice(chull(latitude, longitude))
realm_latlong_palearctic_polygon = cities_to_realms_latlong %>% filter(core_realm == 'Palearctic') %>% slice(chull(latitude, longitude))
realm_latlong_afrotropic_polygon = cities_to_realms_latlong %>% filter(core_realm == 'Afrotropic') %>% slice(chull(latitude, longitude))
realm_latlong_indomalayan_polygon = cities_to_realms_latlong %>% filter(core_realm == 'Indomalayan') %>% slice(chull(latitude, longitude))
realm_latlong_australasia_polygon = cities_to_realms_latlong %>% filter(core_realm == 'Australasia') %>% slice(chull(latitude, longitude))

with_realms_latlong = function(g) {
  g + 
    geom_polygon(data = realm_latlong_neartic_polygon, linewidth = polygon_linewidth, linetype = polygon_line_type, alpha = 0) +
    geom_polygon(data = realm_latlong_neotropic_polygon, linewidth = polygon_linewidth, linetype = polygon_line_type, alpha = 0) +
    geom_polygon(data = realm_latlong_palearctic_polygon, linewidth = polygon_linewidth, linetype = polygon_line_type, alpha = 0) +
    geom_polygon(data = realm_latlong_afrotropic_polygon, linewidth = polygon_linewidth, linetype = polygon_line_type, alpha = 0) +
    geom_polygon(data = realm_latlong_indomalayan_polygon, linewidth = polygon_linewidth, linetype = polygon_line_type, alpha = 0) +
    geom_polygon(data = realm_latlong_australasia_polygon, linewidth = polygon_linewidth, linetype = polygon_line_type, alpha = 0)
}
```

# Check for spatial autocorrelation

## MNTD

### Lat/Long
```{r}
with_realms_latlong(ggplot(analysis_data, aes(x = latitude, y = longitude, colour = mntd_standard)) + geom_point() + standardised_colours_scale + labs(colour = "Standardised response"))
```

```{r}
moran.test(analysis_data$mntd_standard, nb2listw(analysis_data_neighbours))
```
```{r}
with_realms_latlong(ggplot(analysis_data, aes(x = latitude, y = longitude, colour = mntd_normal)) + geom_point() + normalised_colours_scale + labs(colour = "Normalised response"))
```

```{r}
moran.test(analysis_data$mntd_normal, nb2listw(analysis_data_neighbours))
```

### NMDS
```{r}
with_realms_nmds(ggplot(analysis_data, aes(x = NMDS1, y = NMDS2, colour = mntd_standard)) + geom_point() + standardised_colours_scale + labs(colour = "Standardised response"))
```

```{r}
moran.test(analysis_data$mntd_standard, nb2listw(analysis_data_nmds_neighbours))
```

```{r}
with_realms_nmds(ggplot(analysis_data, aes(x = NMDS1, y = NMDS2, colour = mntd_normal)) + geom_point() + standardised_colours_scale + labs(colour = "Normalised response"))
```

```{r}
moran.test(analysis_data$mntd_normal, nb2listw(analysis_data_nmds_neighbours))
```

## FDiv Beak Width

### Lat/Long
```{r}
with_realms_latlong(ggplot(analysis_data, aes(x = latitude, y = longitude, colour = beak_width_fdiv_standard)) + geom_point() + standardised_colours_scale + labs(colour = "Standardised response"))
```

```{r}
moran.test(analysis_data$beak_width_fdiv_standard, nb2listw(analysis_data_neighbours))
```

```{r}
with_realms_latlong(ggplot(analysis_data, aes(x = latitude, y = longitude, colour = beak_width_fdiv_normal)) + geom_point() + standardised_colours_scale + labs(colour = "Normalised response"))
```

```{r}
moran.test(analysis_data$beak_width_fdiv_normal, nb2listw(analysis_data_neighbours))
```

### NMDS
```{r}
with_realms_nmds(ggplot(analysis_data, aes(x = NMDS1, y = NMDS2, colour = beak_width_fdiv_standard)) + geom_point() + standardised_colours_scale + labs(colour = "Standardised response"))
```

```{r}
moran.test(analysis_data$beak_width_fdiv_standard, nb2listw(analysis_data_nmds_neighbours))
```

```{r}
with_realms_nmds(ggplot(analysis_data, aes(x = NMDS1, y = NMDS2, colour = beak_width_fdiv_normal)) + geom_point() + standardised_colours_scale + labs(colour = "Normalised response"))
```

```{r}
moran.test(analysis_data$beak_width_fdiv_normal, nb2listw(analysis_data_nmds_neighbours))
```

## FDiv HWI

### Lat/Long
```{r}
with_realms_latlong(ggplot(analysis_data, aes(x = latitude, y = longitude, colour = hwi_fdiv_standard)) + geom_point() + standardised_colours_scale + labs(colour = "Standardised response"))
```

```{r}
moran.test(analysis_data$hwi_fdiv_standard, nb2listw(analysis_data_neighbours))
```

```{r}
with_realms_latlong(ggplot(analysis_data, aes(x = latitude, y = longitude, colour = hwi_fdiv_normal)) + geom_point() + standardised_colours_scale + labs(colour = "Normalised response"))
```

```{r}
moran.test(analysis_data$hwi_fdiv_normal, nb2listw(analysis_data_neighbours))
```

### NMDS
```{r}
with_realms_nmds(ggplot(analysis_data, aes(x = NMDS1, y = NMDS2, colour = hwi_fdiv_standard)) + geom_point() + standardised_colours_scale + labs(colour = "Standardised response"))
```

```{r}
moran.test(analysis_data$hwi_fdiv_standard, nb2listw(analysis_data_nmds_neighbours))
```

```{r}
with_realms_nmds(ggplot(analysis_data, aes(x = NMDS1, y = NMDS2, colour = hwi_fdiv_normal)) + geom_point() + standardised_colours_scale + labs(colour = "Normalised response"))
```

```{r}
moran.test(analysis_data$hwi_fdiv_normal, nb2listw(analysis_data_nmds_neighbours))
```

## FDiv Mass

### Lat/Long
```{r}
with_realms_latlong(ggplot(analysis_data, aes(x = latitude, y = longitude, colour = mass_fdiv_standard)) + geom_point() + standardised_colours_scale + labs(colour = "Standardised response"))
```

```{r}
moran.test(analysis_data$mass_fdiv_standard, nb2listw(analysis_data_neighbours))
```

```{r}
with_realms_latlong(ggplot(analysis_data, aes(x = latitude, y = longitude, colour = mass_fdiv_normal)) + geom_point() + standardised_colours_scale + labs(colour = "Normalised response"))
```

```{r}
moran.test(analysis_data$mass_fdiv_normal, nb2listw(analysis_data_neighbours))
```
### NMDS
```{r}
with_realms_nmds(ggplot(analysis_data, aes(x = NMDS1, y = NMDS2, colour = mass_fdiv_standard)) + geom_point() + standardised_colours_scale + labs(colour = "Standardised response"))
```

```{r}
moran.test(analysis_data$mass_fdiv_standard, nb2listw(analysis_data_nmds_neighbours))
```

```{r}
with_realms_nmds(ggplot(analysis_data, aes(x = NMDS1, y = NMDS2, colour = mass_fdiv_normal)) + geom_point() + standardised_colours_scale + labs(colour = "Normalised response"))
```

```{r}
moran.test(analysis_data$mass_fdiv_normal, nb2listw(analysis_data_nmds_neighbours))
```


# Examine individual metrics
```{r}
all_explanatories = c(
    'city_avg_ndvi', 'city_avg_elevation', 'city_avg_temp',
    'region_50km_avg_soil_moisture',
    'core_realmAfrotropic', 'core_realmAustralasia', 'core_realmIndomalayan', 'core_realmNearctic', 'core_realmNeotropic', 'core_realmPalearctic',
    'has_introduced_speciesNo introduced species', 'has_introduced_speciesIntroduced species',
    'core_realmAfrotropic:has_introduced_speciesIntroduced species',
    'core_realmAustralasia:has_introduced_speciesIntroduced species',
    'core_realmIndomalayan:has_introduced_speciesIntroduced species',
    'core_realmNearctic:has_introduced_speciesIntroduced species',
    'core_realmNeotropic:has_introduced_speciesIntroduced species',
    'core_realmPalearctic:has_introduced_speciesIntroduced species',
    'core_realmOceania:has_introduced_speciesIntroduced species'
)

all_explanatory_names = factor(
   c(
    'Avg. NDVI', 'Avg. Elevation', 'Avg. Temp.',
    'Avg. Soil Moisture',
    'Afrotropic', 'Australasia', 'Indomalayan', 'Nearctic', 'Neotropic', 'Palearctic',
    'Introduced Absent', 'Introduced Present',
    'Afrotropical * Introduced present',
    'Austaliasian * Introduced present',
    'Indomalayan * Introduced present',
    'Nearctic * Introduced present',
    'Neotropical * Introduced present',
    'Palearctic * Introduced present',
    'Oceanical * Introduced present'
  ), ordered = T
)

explanatory_dictionary = data.frame(explanatory = all_explanatories, explanatory_name = all_explanatory_names)
  
with_explanatory_type_labels = function(p) {
  p = p[p$explanatory != '(Intercept)',]
  explanatory_levels = all_explanatories[all_explanatories %in% p$explanatory]
  p$explanatory <- factor(p$explanatory, levels = explanatory_levels)
  
  p$type <- 'Realm'
  p$type[p$explanatory %in% c('city_avg_ndvi', 'city_avg_elevation', 'city_avg_temp')] <- 'City geography'
  p$type[p$explanatory %in% c('region_50km_avg_soil_moisture')] <- 'Regional (50 km) geography'
  p$type[p$explanatory %in% c('has_introduced_speciesNo introduced species', 'has_introduced_speciesIntroduced species')] <- 'Introduced species'
  p
}

with_explanatory_names = function(p) {
  p %>% left_join(explanatory_dictionary) %>% arrange(desc(explanatory_name))
}

type_labels = function(p) {
  explanatory_levels = all_explanatories[all_explanatories %in% p$explanatory]
  p$explanatory <- factor(p$explanatory, levels = explanatory_levels)
  
  p$type <- 'Realm'
  p$type[p$explanatory %in% c('city_avg_ndvi', 'city_avg_elevation', 'city_avg_temp', 'city_avg_min_monthly_temp', 'city_avg_max_monthly_temp', 
    'city_avg_monthly_temp', 'city_avg_rainfall', 'city_avg_max_monthly_rainfall', 'city_avg_min_monthly_rainfall', 
    'city_avg_soil_moisture', 'city_max_elev', 'city_min_elev', 'city_elev_range')] <- 'City geography'
  p$type[p$explanatory %in% c('region_50km_avg_ndvi', 'region_50km_avg_elevation', 'region_50km_avg_soil_moisture', 'region_50km_max_elev', 
    'region_50km_min_elev', 'region_50km_elev_range')] <- 'Regional (50 km) geography'
   p$type[p$explanatory %in% c('region_20km_avg_ndvi', 'region_20km_avg_elevation', 'region_20km_avg_soil_moisture', 'region_20km_max_elev', 
    'region_20km_min_elev', 'region_20km_elev_range')] <- 'Regional (20 km) geography'
  p$type[p$explanatory %in% c('has_introduced_speciesNo introduced species', 'has_introduced_speciesIntroduced species')] <- 'Introduced species'
  p
}
```

```{r}
explanatory_labels = c(
  'has_introduced_species'='Introduced species', 
  'has_introduced_speciesNo introduced species'='Introduced absent', 
  'has_introduced_speciesIntroduced species'='Introduced present',
  'city_avg_ndvi'='Average NDVI', 
  'city_avg_elevation'='Average elevation', 
  'city_avg_temp'='Average temperature', 
  'city_avg_min_monthly_temp'='Average minimum monthly temperature', 
  'city_avg_max_monthly_temp'='Average maximum monthly temperature', 
  'city_avg_monthly_temp'='Average monthly temperature', 
  'city_avg_rainfall'='Average rainfall', 
  'city_avg_max_monthly_rainfall'='Average maximum monthly rainfall', 
  'city_avg_min_monthly_rainfall'='Average minimum monthly rainfall', 
  'city_avg_soil_moisture'='Average soil moisture', 
  'city_max_elev'='Maximum elevation', 
  'city_min_elev'='Minimum elevation', 
  'city_elev_range'='Elevation range', 
  'region_20km_avg_ndvi'='Average NDVI', 
  'region_20km_avg_elevation'='Average elevation', 
  'region_20km_avg_soil_moisture'='Average soil moisture', 
  'region_20km_max_elev'='Maximum elevation', 
  'region_20km_min_elev'='Minimum elevation',
  'region_20km_elev_range'='Elevation range',
  'region_50km_avg_ndvi'='Average NDVI',
  'region_50km_avg_elevation'='Average elevation',
  'region_50km_avg_soil_moisture'='Average soil moisture', 
  'region_50km_max_elev'='Maximum elevation',
  'region_50km_min_elev'='Minimum elevation', 
  'region_50km_elev_range'='Elevation range',
  'abs_latitude' = 'Absolute latitude',
  'latitude' = 'Latitude',
  'longitude' = 'Longitude',
  'core_realmAfrotropic' = 'Afrotropical', 
  'core_realmAustralasia' = 'Austaliasian', 
  'core_realmIndomalayan' = 'Indomalayan', 
  'core_realmNearctic' = 'Nearctic', 
  'core_realmNeotropic' = 'Neotropical',
  'core_realmPalearctic' = 'Palearctic',
  'core_realmOceania' = 'Oceanical',
  'core_realmAfrotropic:has_introduced_speciesIntroduced species' = 'Afrotropical * Introduced present',
  'core_realmAustralasia:has_introduced_speciesIntroduced species' = 'Austaliasian * Introduced present',
  'core_realmIndomalayan:has_introduced_speciesIntroduced species' = 'Indomalayan * Introduced present',
  'core_realmNearctic:has_introduced_speciesIntroduced species' = 'Nearctic * Introduced present',
  'core_realmNeotropic:has_introduced_speciesIntroduced species' = 'Neotropical * Introduced present',
  'core_realmPalearctic:has_introduced_speciesIntroduced species' = 'Palearctic * Introduced present',
  'core_realmOceania:has_introduced_speciesIntroduced species' = 'Oceanical * Introduced present'
)
```

```{r}
create_formula = function(response_var) {
  as.formula(paste(response_var, '~ core_realm + city_avg_ndvi + city_avg_elevation + city_avg_temp + region_50km_avg_soil_moisture + has_introduced_species'))
}
```

## Helper plot functions
```{r}
geom_map = function(map_sf, title, scale = standardised_colours_scale, colour_label = 'Standardised\nResponse') {
  norm_mntd_analysis_geo = ggplot() + 
    geom_sf(data = world_map, aes(geometry = geometry)) +
    map_sf +
    scale +
    labs(colour = colour_label) +
    theme_bw() +
    theme(legend.position="bottom")
}

geom_map_std = function(map_sf, title) {
  geom_map(map_sf, title)
}

geom_map_nrm = function(map_sf, title) {
  geom_map(map_sf, title, normalised_colours_scale, 'Normalised\nResponse')
}
```

## Helper Dredge functions
```{r}
# Taken from MuMIN package
# https://rdrr.io/cran/MuMIn/src/R/averaging.R
# https://rdrr.io/cran/MuMIn/src/R/model.avg.R

.coefarr.avg <-
  function(cfarr, weight, revised.var, full, alpha) {	
    weight <- weight / sum(weight)
    nCoef <- dim(cfarr)[3L]
    if(full) {
      nas <- is.na(cfarr[, 1L, ]) & is.na(cfarr[, 2L, ])
      cfarr[, 1L, ][nas] <- cfarr[, 2L, ][nas] <- 0
      #cfarr[, 1L:2L, ][is.na(cfarr[, 1L:2L, ])] <- 0
      if(!all(is.na(cfarr[, 3L, ])))
        cfarr[ ,3L, ][is.na(cfarr[ , 3L, ])] <- Inf
    }
    
    avgcoef <- array(dim = c(nCoef, 5L),
                     dimnames = list(dimnames(cfarr)[[3L]], c("Estimate",
                                                              "Std. Error", "Adjusted SE", "Lower CI", "Upper CI")))
    for(i in seq_len(nCoef))
      avgcoef[i, ] <- par.avg(cfarr[, 1L, i], cfarr[, 2L, i], weight,
                              df = cfarr[, 3L, i], alpha = alpha, revised.var = revised.var)
    
    avgcoef[is.nan(avgcoef)] <- NA
    return(avgcoef)
  }

.makecoefmat <- function(cf) {
  no.ase <- all(is.na(cf[, 3L]))
  z <- abs(cf[, 1L] / cf[, if(no.ase) 2L else 3L])
  pval <- 2 * pnorm(z, lower.tail = FALSE)
  cbind(cf[, if(no.ase) 1L:2L else 1L:3L, drop = FALSE],
        `z value` = z, `Pr(>|z|)` = zapsmall(pval))
}

# Generate model selections using lmer, dredge, and model.avg
# `forumla` : a two-sided linear formula object describing both the fixed-effects and random-effects part of the model
# `data` : the data frame containing the variables from the formula
# `aic_delta` : the AIC delta to use for selecting models in model average
model_average <- function(formula, data, aic_delta = 20) {
  model <- lm(
    formula,
    data=data
  )
  dredge_result <- dredge(model)
  summary(model.avg(dredge_result, subset = delta < aic_delta))
}

# Create a summary data frame containing the selected variables from a model
# `model_sum` : The model summary output from `model_average`
model_summary <- function(model_sum) {
  .column_name <- function(postfix) {
    postfix
  }
  
  # just return the estimate and p value
  weight <- model_sum$msTable[, 5L]
  
  coefmat.full <- as.data.frame(.makecoefmat(.coefarr.avg(model_sum$coefArray, weight,
                                                          attr(model_sum, "revised.var"), TRUE, 0.05)))
  
  coefmat.subset <-
    as.data.frame(.makecoefmat(.coefarr.avg(model_sum$coefArray, weight,
                                            attr(model_sum, "revised.var"), FALSE, 0.05)))
  
  
  coefmat.subset <- coefmat.subset[-c(1), c(1, 2, 5)]
  names(coefmat.subset) <- c(.column_name("estimate"), .column_name("error"), .column_name("p"))
  coefmat.subset <- tibble::rownames_to_column(coefmat.subset, "explanatory")
  coefmat.subset$model = 'subset'
  
  coefmat.full <- coefmat.full[-c(1), c(1, 2, 5)]
  names(coefmat.full) <- c(.column_name("estimate"), .column_name("error"), .column_name("p"))
  coefmat.full <- tibble::rownames_to_column(coefmat.full, "explanatory")
  coefmat.full$model = 'full'
  
  rbind(coefmat.full, coefmat.subset)
}
```

```{r}
plot_dredge_result = function(result_table, mu = 0) {
  p = result_table[result_table$model == 'full',]
  p = type_labels(p)

  ggplot(p, aes(y = explanatory, x = estimate, colour = type)) + 
    geom_line() +
    geom_point() +
    geom_errorbar(aes(xmin=estimate-error, xmax=estimate+error), width=.2,
                   position=position_dodge(0.05)) +
    scale_y_discrete(
      limits = rev(levels(p$explanatory)), 
      labels = explanatory_labels) +
    scale_colour_manual(
      values = c(realm_colour, city_geography_colour, regional_50km_geography_colour, regional_20km_geography_colour, introduced_species_colour), 
      breaks = c('Realm', 'City geography', 'Regional (50 km) geography', 'Regional (20 km) geography', 'Introduced species')) +
    theme_bw() +
    geom_vline(xintercept=mu, linetype="dotted") +
    guides(colour=guide_legend(title="Predictor type")) + xlab('Difference in response from 0\nhabitat filtering (< 0) and competitive interactions (> 0)\n± Standard Error') + ylab('Predictor') +
    theme(legend.justification = "top")
}
```

## GLS Spatial Helpers
```{r}
gls_method = "ML"

spatial_model = function(formula, correlation) {
  gls(
    formula, 
    data = analysis_data, 
    correlation = correlation, 
    method = gls_method
  )
}

plot_spatial_result = function(model_result) {
  model_summary = summary(model_result)
  result_table = as.data.frame(model_summary$tTable)
  result_table$explanatory = rownames(result_table)
  
  result_table = result_table %>% with_explanatory_type_labels() %>% with_explanatory_names()
  
  ggplot2::ggplot(result_table, ggplot2::aes(y=factor(explanatory_name, level = all_explanatory_names, ordered = T), x=Value, colour = type)) + 
    ggplot2::geom_line() +
    ggplot2::geom_point() +
    ggplot2::geom_errorbar(ggplot2::aes(xmin=Value-Std.Error, xmax=Value+Std.Error), width=.2,
                   position=ggplot2::position_dodge(0.05)) +
    ggplot2::theme_bw() +
    ggplot2::geom_vline(xintercept=0, linetype="dotted") +
    ggplot2::theme(legend.justification = "top") +
    ylab('Predictor') +
    guides(colour=guide_legend(title="Predictor type")) + xlab('Difference in response from 0\nhabitat filtering (< 0) and competitive interactions (> 0)\n± Standard Error') +
    scale_colour_manual(
      values = c(realm_colour, city_geography_colour, regional_50km_geography_colour, introduced_species_colour), 
      breaks = c('Realm', 'City geography', 'Regional (50 km) geography', 'Introduced species')) +
    scale_y_discrete(limits = rev(all_explanatory_names[all_explanatory_names %in% result_table$explanatory_name]))
}
```

### Choose best spatial correlation function

#### MNTD
```{r}
AIC(spatial_model(create_formula('mntd_standard'), corLin(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('mntd_standard'), corLin(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('mntd_standard'), corExp(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('mntd_standard'), corExp(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('mntd_standard'), corGaus(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('mntd_standard'), corGaus(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('mntd_standard'), corRatio(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('mntd_standard'), corRatio(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('mntd_standard'), corSpher(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('mntd_standard'), corSpher(form = ~ latitude + longitude)))
```
MNTD: corRatio with NMDS + lat/long

```{r}
AIC(spatial_model(create_formula('mntd_normal'), corLin(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
#AIC(spatial_model(create_formula('mntd_normal'), corLin(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('mntd_normal'), corExp(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('mntd_normal'), corExp(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('mntd_normal'), corGaus(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('mntd_normal'), corGaus(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('mntd_normal'), corRatio(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('mntd_normal'), corRatio(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('mntd_normal'), corSpher(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('mntd_normal'), corSpher(form = ~ latitude + longitude)))
```

#### Beak Width

```{r}
AIC(spatial_model(create_formula('beak_width_fdiv_standard'), corLin(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
#AIC(spatial_model(create_formula('beak_width_fdiv_standard'), corLin(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('beak_width_fdiv_standard'), corExp(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('beak_width_fdiv_standard'), corExp(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('beak_width_fdiv_standard'), corGaus(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('beak_width_fdiv_standard'), corGaus(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('beak_width_fdiv_standard'), corRatio(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('beak_width_fdiv_standard'), corRatio(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('beak_width_fdiv_standard'), corSpher(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('beak_width_fdiv_standard'), corSpher(form = ~ latitude + longitude)))
```
Beak width: corExp with NMDS + lat/long

```{r}
AIC(spatial_model(create_formula('beak_width_fdiv_normal'), corLin(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('beak_width_fdiv_normal'), corLin(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('beak_width_fdiv_normal'), corExp(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('beak_width_fdiv_normal'), corExp(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('beak_width_fdiv_normal'), corGaus(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('beak_width_fdiv_normal'), corGaus(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('beak_width_fdiv_normal'), corRatio(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('beak_width_fdiv_normal'), corRatio(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('beak_width_fdiv_normal'), corSpher(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('beak_width_fdiv_normal'), corSpher(form = ~ latitude + longitude)))
```

#### HWI
```{r}
AIC(spatial_model(create_formula('hwi_fdiv_standard'), corLin(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('hwi_fdiv_standard'), corLin(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('hwi_fdiv_standard'), corExp(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('hwi_fdiv_standard'), corExp(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('hwi_fdiv_standard'), corGaus(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('hwi_fdiv_standard'), corGaus(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('hwi_fdiv_standard'), corRatio(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('hwi_fdiv_standard'), corRatio(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('hwi_fdiv_standard'), corSpher(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('hwi_fdiv_standard'), corSpher(form = ~ latitude + longitude)))
```

HWI: corExp with NMDS + lat/long

```{r}
#AIC(spatial_model(create_formula('hwi_fdiv_normal'), corLin(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
#AIC(spatial_model(create_formula('hwi_fdiv_normal'), corLin(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('hwi_fdiv_normal'), corExp(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('hwi_fdiv_normal'), corExp(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('hwi_fdiv_normal'), corGaus(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('hwi_fdiv_normal'), corGaus(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('hwi_fdiv_normal'), corRatio(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('hwi_fdiv_normal'), corRatio(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('hwi_fdiv_normal'), corSpher(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('hwi_fdiv_normal'), corSpher(form = ~ latitude + longitude)))
```

#### Mass
```{r}
AIC(spatial_model(create_formula('mass_fdiv_standard'), corLin(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
#AIC(spatial_model(create_formula('mass_fdiv_standard'), corLin(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('mass_fdiv_standard'), corExp(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('mass_fdiv_standard'), corExp(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('mass_fdiv_standard'), corGaus(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('mass_fdiv_standard'), corGaus(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('mass_fdiv_standard'), corRatio(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('mass_fdiv_standard'), corRatio(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('mass_fdiv_standard'), corSpher(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('mass_fdiv_standard'), corSpher(form = ~ latitude + longitude)))
```

Mass: corExp with NMDS + lat/long

```{r}
#AIC(spatial_model(create_formula('mass_fdiv_normal'), corLin(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
#AIC(spatial_model(create_formula('mass_fdiv_normal'), corLin(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('mass_fdiv_normal'), corExp(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('mass_fdiv_normal'), corExp(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('mass_fdiv_normal'), corGaus(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('mass_fdiv_normal'), corGaus(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('mass_fdiv_normal'), corRatio(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('mass_fdiv_normal'), corRatio(form = ~ latitude + longitude)))
AIC(spatial_model(create_formula('mass_fdiv_normal'), corSpher(form = ~ NMDS1 + NMDS2 + latitude + longitude)))
AIC(spatial_model(create_formula('mass_fdiv_normal'), corSpher(form = ~ latitude + longitude)))
```

```{r}
correlation_formula = as.formula('~ NMDS1 + NMDS2 + latitude + longitude')

correlation_function_fdiv = function() {
  corExp(form = correlation_formula)
}

correlation_function_mntd = function() {
  corRatio(form = correlation_formula)
}
```

## MNTD

### Standardised
```{r}
std_mntd_analysis_geo_plot = geom_map_std(geom_sf(data = analysis_data, aes(color = mntd_standard, geometry = geometry)), 'MNTD')
std_mntd_analysis_geo_plot
```

```{r}
std_mntd_analysis_data = model_data(analysis_data[!is.na(analysis_data$mntd_standard),], 'mntd_standard')
std_mntd_analysis_formula = create_formula('mntd_standard')
std_mntd_analysis_result = model_average(std_mntd_analysis_formula, std_mntd_analysis_data)
std_mntd_analysis_result_table = model_summary(std_mntd_analysis_result)
std_mntd_analysis_result_table
```

```{r}
std_mntd_analysis_pred_plot = plot_dredge_result(std_mntd_analysis_result_table)
std_mntd_analysis_pred_plot
```

Do the residuals still contain spatial autocorrelation from a fitted lm?
```{r}
std_mntd_lm = lm(std_mntd_analysis_formula, std_mntd_analysis_data)
moran.test(std_mntd_lm$residuals, nb2listw(analysis_data_neighbours))
moran.test(std_mntd_lm$residuals, nb2listw(analysis_data_nmds_neighbours))
```

```{r}
std_mntd_spatial_model = spatial_model(std_mntd_analysis_formula, correlation_function_mntd())
moran.test(std_mntd_spatial_model$residuals, nb2listw(analysis_data_neighbours))
moran.test(std_mntd_spatial_model$residuals, nb2listw(analysis_data_nmds_neighbours))
```

```{r}
std_mntd_analysis_pred_spatial_plot = plot_spatial_result(std_mntd_spatial_model)
std_mntd_analysis_pred_spatial_plot
```

### Normalised
```{r}
nrm_mntd_analysis_geo_plot = geom_map_nrm(geom_sf(data = analysis_data, aes(color = mntd_normal, geometry = geometry)), 'MNTD')
nrm_mntd_analysis_geo_plot
```

```{r}
nrm_mntd_analysis_data = model_data(analysis_data[!is.na(analysis_data$mntd_normal),], 'mntd_normal')
nrm_mntd_analysis_formula = create_formula('mntd_normal')
nrm_mntd_analysis_result = model_average(nrm_mntd_analysis_formula, nrm_mntd_analysis_data)
nrm_mntd_analysis_result_table = model_summary(nrm_mntd_analysis_result)
nrm_mntd_analysis_result_table
```

```{r}
nrm_mntd_analysis_pred_plot = plot_dredge_result(nrm_mntd_analysis_result_table)
nrm_mntd_analysis_pred_plot
```

Do the residuals still contain spatial autocorrelation from a fitted lm?
```{r}
nrm_mntd_lm = lm(nrm_mntd_analysis_formula, nrm_mntd_analysis_data)
moran.test(nrm_mntd_lm$residuals, nb2listw(analysis_data_neighbours))
moran.test(nrm_mntd_lm$residuals, nb2listw(analysis_data_nmds_neighbours))
```

```{r}
nrm_mntd_spatial_model = spatial_model(nrm_mntd_analysis_formula, correlation_function_mntd())
moran.test(nrm_mntd_spatial_model$residuals, nb2listw(analysis_data_neighbours))
moran.test(nrm_mntd_spatial_model$residuals, nb2listw(analysis_data_nmds_neighbours))
```

```{r}
nrm_mntd_analysis_pred_spatial_plot = plot_spatial_result(nrm_mntd_spatial_model)
nrm_mntd_analysis_pred_spatial_plot
```

## Gape width - FDiv
### Standardised
```{r}
std_gape_fdiv_analysis_geo_plot = geom_map_std(geom_sf(data = analysis_data, aes(color = beak_width_fdiv_standard, geometry = geometry)), 'Beak Width FDiv')
std_gape_fdiv_analysis_geo_plot
```


```{r}
std_gape_fdiv_analysis_data = model_data(analysis_data[!is.na(analysis_data$beak_width_fdiv_standard),], 'beak_width_fdiv_standard')
std_gape_fdiv_analysis_formula = create_formula('beak_width_fdiv_standard')
std_gape_fdiv_analysis_result = model_average(std_gape_fdiv_analysis_formula, std_gape_fdiv_analysis_data)
std_gape_fdiv_analysis_result_table = model_summary(std_gape_fdiv_analysis_result)
std_gape_fdiv_analysis_result_table
```

```{r}
std_gape_fdiv_analysis_pred_plot = plot_dredge_result(std_gape_fdiv_analysis_result_table)
std_gape_fdiv_analysis_pred_plot
```

Do the residuals still contain spatial autocorrelation from a fitted lm?
```{r}
std_gape_fdiv_lm = lm(std_gape_fdiv_analysis_formula, std_gape_fdiv_analysis_data)
moran.test(std_gape_fdiv_lm$residuals, nb2listw(analysis_data_neighbours))
moran.test(std_gape_fdiv_lm$residuals, nb2listw(analysis_data_nmds_neighbours))
```

```{r}
std_gape_fdiv_spatial_model = spatial_model(std_gape_fdiv_analysis_formula, correlation_function_fdiv())
moran.test(std_gape_fdiv_spatial_model$residuals, nb2listw(analysis_data_neighbours))
moran.test(std_gape_fdiv_spatial_model$residuals, nb2listw(analysis_data_nmds_neighbours))
```

```{r}
std_gape_fdiv_analysis_pred_spatial_plot = plot_spatial_result(std_gape_fdiv_spatial_model)
std_gape_fdiv_analysis_pred_spatial_plot
```

### Normalised
```{r}
nrm_gape_fdiv_analysis_geo_plot = geom_map_nrm(geom_sf(data = analysis_data, aes(color = beak_width_fdiv_normal, geometry = geometry)), 'Beak Width FDiv')
nrm_gape_fdiv_analysis_geo_plot
```


```{r}
nrm_gape_fdiv_analysis_data = model_data(analysis_data[!is.na(analysis_data$beak_width_fdiv_normal),], 'beak_width_fdiv_normal')
nrm_gape_fdiv_analysis_formula = create_formula('beak_width_fdiv_normal')
nrm_gape_fdiv_analysis_result = model_average(nrm_gape_fdiv_analysis_formula, nrm_gape_fdiv_analysis_data)
nrm_gape_fdiv_analysis_result_table = model_summary(nrm_gape_fdiv_analysis_result)
nrm_gape_fdiv_analysis_result_table
```

```{r}
nrm_gape_fdiv_analysis_pred_plot = plot_dredge_result(nrm_gape_fdiv_analysis_result_table)
nrm_gape_fdiv_analysis_pred_plot
```

Do the residuals still contain spatial autocorrelation from a fitted lm?
```{r}
nrm_gape_fdiv_lm = lm(nrm_gape_fdiv_analysis_formula, nrm_gape_fdiv_analysis_data)
moran.test(nrm_gape_fdiv_lm$residuals, nb2listw(analysis_data_neighbours))
moran.test(nrm_gape_fdiv_lm$residuals, nb2listw(analysis_data_nmds_neighbours))
```

```{r}
nrm_gape_fdiv_spatial_model = spatial_model(nrm_gape_fdiv_analysis_formula, correlation_function_fdiv())
moran.test(nrm_gape_fdiv_spatial_model$residuals, nb2listw(analysis_data_neighbours))
moran.test(nrm_gape_fdiv_spatial_model$residuals, nb2listw(analysis_data_nmds_neighbours))
```

```{r}
nrm_gape_fdiv_analysis_pred_spatial_plot = plot_spatial_result(nrm_gape_fdiv_spatial_model)
nrm_gape_fdiv_analysis_pred_spatial_plot
```

## HWI - FDiv
### Standardised
```{r}
std_hwi_fdiv_analysis_geo_plot = geom_map_std(geom_sf(data = analysis_data, aes(color = hwi_fdiv_standard, geometry = geometry)), 'HWI FDiv')
std_hwi_fdiv_analysis_geo_plot
```



```{r}
std_hwi_fdiv_analysis_data = model_data(analysis_data[!is.na(analysis_data$hwi_fdiv_standard),], 'hwi_fdiv_standard')
std_hwi_fdiv_analysis_formula = create_formula('hwi_fdiv_standard')
std_hwi_fdiv_analysis_result = model_average(std_hwi_fdiv_analysis_formula, std_hwi_fdiv_analysis_data)
std_hwi_fdiv_analysis_result_table = model_summary(std_hwi_fdiv_analysis_result)
std_hwi_fdiv_analysis_result_table
```

```{r}
std_hwi_fdiv_analysis_pred_plot = plot_dredge_result(std_hwi_fdiv_analysis_result_table)
std_hwi_fdiv_analysis_pred_plot
```

```{r}
std_hwi_fdiv_lm = lm(std_hwi_fdiv_analysis_formula, std_hwi_fdiv_analysis_data)
moran.test(std_hwi_fdiv_lm$residuals, nb2listw(analysis_data_neighbours))
moran.test(std_hwi_fdiv_lm$residuals, nb2listw(analysis_data_nmds_neighbours))
```

```{r}
std_hwi_fdiv_spatial_model = spatial_model(std_hwi_fdiv_analysis_formula, correlation_function_fdiv())
moran.test(std_hwi_fdiv_spatial_model$residuals, nb2listw(analysis_data_neighbours))
moran.test(std_hwi_fdiv_spatial_model$residuals, nb2listw(analysis_data_nmds_neighbours))
```

```{r}
std_hwi_fdiv_analysis_pred_spatial_plot = plot_spatial_result(std_hwi_fdiv_spatial_model)
std_hwi_fdiv_analysis_pred_spatial_plot
```

### Normalised
```{r}
nrm_hwi_fdiv_analysis_geo_plot = geom_map_nrm(geom_sf(data = analysis_data, aes(color = hwi_fdiv_normal, geometry = geometry)), 'HWI FDiv')
nrm_hwi_fdiv_analysis_geo_plot
```


```{r}
nrm_hwi_fdiv_analysis_data = model_data(analysis_data[!is.na(analysis_data$hwi_fdiv_normal),], 'hwi_fdiv_normal')
nrm_hwi_fdiv_analysis_formula = create_formula('hwi_fdiv_normal')
nrm_hwi_fdiv_analysis_result = model_average(nrm_hwi_fdiv_analysis_formula, nrm_hwi_fdiv_analysis_data)
nrm_hwi_fdiv_analysis_result_table = model_summary(nrm_hwi_fdiv_analysis_result)
nrm_hwi_fdiv_analysis_result_table
```

```{r}
nrm_hwi_fdiv_analysis_pred_plot = plot_dredge_result(nrm_hwi_fdiv_analysis_result_table)
nrm_hwi_fdiv_analysis_pred_plot
```

```{r}
nrm_hwi_fdiv_lm = lm(nrm_hwi_fdiv_analysis_formula, nrm_hwi_fdiv_analysis_data)
moran.test(nrm_hwi_fdiv_lm$residuals, nb2listw(analysis_data_neighbours))
moran.test(nrm_hwi_fdiv_lm$residuals, nb2listw(analysis_data_nmds_neighbours))
```

```{r}
nrm_hwi_fdiv_spatial_model = spatial_model(nrm_hwi_fdiv_analysis_formula, correlation_function_fdiv())
moran.test(nrm_hwi_fdiv_spatial_model$residuals, nb2listw(analysis_data_neighbours))
moran.test(nrm_hwi_fdiv_spatial_model$residuals, nb2listw(analysis_data_nmds_neighbours))
```

```{r}
nrm_hwi_fdiv_analysis_pred_spatial_plot = plot_spatial_result(nrm_hwi_fdiv_spatial_model)
nrm_hwi_fdiv_analysis_pred_spatial_plot
```

## Mass - FDiv
### Standardised
```{r}
std_mass_fdiv_analysis_geo_plot = geom_map_std(geom_sf(data = analysis_data, aes(color = mass_fdiv_standard, geometry = geometry)), 'Mass FDiv')
std_mass_fdiv_analysis_geo_plot
```


```{r}
std_mass_fdiv_analysis_data = model_data(analysis_data[!is.na(analysis_data$mass_fdiv_standard),], 'mass_fdiv_standard')
std_mass_fdiv_analysis_formula = create_formula('mass_fdiv_standard')
std_mass_fdiv_analysis_result <- model_average(std_mass_fdiv_analysis_formula, std_mass_fdiv_analysis_data)
std_mass_fdiv_analysis_result_table = model_summary(std_mass_fdiv_analysis_result)
std_mass_fdiv_analysis_result_table
```

```{r}
std_mass_fdiv_analysis_pred_plot = plot_dredge_result(std_mass_fdiv_analysis_result_table)
std_mass_fdiv_analysis_pred_plot
```

```{r}
std_mass_fdiv_lm = lm(std_mass_fdiv_analysis_formula, std_mass_fdiv_analysis_data)
moran.test(std_mass_fdiv_lm$residuals, nb2listw(analysis_data_neighbours))
moran.test(std_mass_fdiv_lm$residuals, nb2listw(analysis_data_nmds_neighbours))
```

```{r}
std_mass_fdiv_spatial_model = spatial_model(std_mass_fdiv_analysis_formula, correlation_function_fdiv())
moran.test(std_mass_fdiv_spatial_model$residuals, nb2listw(analysis_data_neighbours))
moran.test(std_mass_fdiv_spatial_model$residuals, nb2listw(analysis_data_nmds_neighbours))
```

```{r}
std_mass_fdiv_analysis_pred_spatial_plot = plot_spatial_result(std_mass_fdiv_spatial_model)
std_mass_fdiv_analysis_pred_spatial_plot
```


### Normalised
```{r}
nrm_mass_fdiv_analysis_geo_plot = geom_map_nrm(geom_sf(data = analysis_data, aes(color = mass_fdiv_normal, geometry = geometry)), 'Mass FDiv')
nrm_mass_fdiv_analysis_geo_plot
```


```{r}
nrm_mass_fdiv_analysis_data = model_data(analysis_data[!is.na(analysis_data$mass_fdiv_normal),], 'mass_fdiv_normal')
nrm_mass_fdiv_analysis_formula = create_formula('mass_fdiv_normal')
nrm_mass_fdiv_analysis_result = model_average(nrm_mass_fdiv_analysis_formula, nrm_mass_fdiv_analysis_data)
nrm_mass_fdiv_analysis_result_table = model_summary(nrm_mass_fdiv_analysis_result)
nrm_mass_fdiv_analysis_result_table
```

```{r}
nrm_mass_fdiv_analysis_pred_plot = plot_dredge_result(nrm_mass_fdiv_analysis_result_table)
nrm_mass_fdiv_analysis_pred_plot
```

```{r}
nrm_mass_fdiv_lm = lm(nrm_mass_fdiv_analysis_formula, nrm_mass_fdiv_analysis_data)
moran.test(nrm_mass_fdiv_lm$residuals, nb2listw(analysis_data_neighbours))
moran.test(nrm_mass_fdiv_lm$residuals, nb2listw(analysis_data_nmds_neighbours))
```

```{r}
nrm_mass_fdiv_spatial_model = spatial_model(nrm_mass_fdiv_analysis_formula, correlation_function_fdiv())
moran.test(nrm_mass_fdiv_spatial_model$residuals, nb2listw(analysis_data_neighbours))
moran.test(nrm_mass_fdiv_spatial_model$residuals, nb2listw(analysis_data_nmds_neighbours))
```

```{r}
nrm_mass_fdiv_analysis_pred_spatial_plot = plot_spatial_result(nrm_mass_fdiv_spatial_model)
nrm_mass_fdiv_analysis_pred_spatial_plot
```

# Create plot of differences in process response


```{r}
fig = function(trait_name, response_type, geo_plot, predictor_plot) {
  grid.arrange(
    arrangeGrob(grid::textGrob(trait_name, x = 0.02, hjust = 0, gp=gpar(fontface="bold"))),
    arrangeGrob(grid::textGrob(paste('A)', response_type,'response by city'), x = 0.02, hjust = 0, gp=gpar(fontface="bold"))),
    geo_plot,
    arrangeGrob(grid::textGrob(paste('B)', response_type, 'response predictors'), x = 0.02, hjust = 0, gp=gpar(fontface="bold"))),
    predictor_plot + theme(legend.position = 'bottom') + guides(colour = guide_legend(nrow=2, byrow=TRUE)),
    heights = c(0.25, 0.25, 4, 0.25, 3),
    nrow = 5
  )
}


fig('MNTD', 'Standardised', std_mntd_analysis_geo_plot, std_mntd_analysis_pred_plot)
```
## MNTD
```{r}
jpeg(filename(FIGURES_OUTPUT_DIR, 'figure2_std_mntd.jpg'), width = 200, height = 220, units = 'mm', res = 300)
grid.arrange(
  arrangeGrob(fig('MNTD', 'Standardised', std_mntd_analysis_geo_plot, std_mntd_analysis_pred_plot)),
  ncol = 1
  )
dev.off()
```


```{r}
jpeg(filename(FIGURES_OUTPUT_DIR, 'figure2_nrm_mntd.jpg'), width = 200, height = 220, units = 'mm', res = 300)
grid.arrange(
  arrangeGrob(fig('MNTD', 'Normalised', nrm_mntd_analysis_geo_plot, nrm_mntd_analysis_pred_plot)),
  ncol = 1
  )
dev.off()
```

## Beak Width
```{r}
jpeg(filename(FIGURES_OUTPUT_DIR, 'figure2_std_beak_width.jpg'), width = 200, height = 220, units = 'mm', res = 300)
grid.arrange(
  arrangeGrob(fig('Beak Width', 'Standardised', std_gape_fdiv_analysis_geo_plot, std_gape_fdiv_analysis_pred_plot)),
  ncol = 1
  )
dev.off()
```


```{r}
jpeg(filename(FIGURES_OUTPUT_DIR, 'figure2_nrm_beak_width.jpg'), width = 200, height = 220, units = 'mm', res = 300)
grid.arrange(
  arrangeGrob(fig('Beak Width', 'Normalised', nrm_gape_fdiv_analysis_geo_plot, nrm_gape_fdiv_analysis_pred_plot)),
  ncol = 1
  )
dev.off()
```

## HWI
```{r}
jpeg(filename(FIGURES_OUTPUT_DIR, 'figure2_std_hwi.jpg'), width = 200, height = 220, units = 'mm', res = 300)
grid.arrange(
  arrangeGrob(fig('HWI (Hand-wing Index)', 'Standardised', std_hwi_fdiv_analysis_geo_plot, std_hwi_fdiv_analysis_pred_plot)),
  ncol = 1
  )
dev.off()
```


```{r}
jpeg(filename(FIGURES_OUTPUT_DIR, 'figure2_nrm_hwi.jpg'), width = 200, height = 220, units = 'mm', res = 300)
grid.arrange(
  arrangeGrob(fig('HWI (Hand-wing Index)', 'Normalised', nrm_hwi_fdiv_analysis_geo_plot, nrm_hwi_fdiv_analysis_pred_plot)),
  ncol = 1
  )
dev.off()
```

## Mass
```{r}
jpeg(filename(FIGURES_OUTPUT_DIR, 'figure2_std_mass.jpg'), width = 200, height = 220, units = 'mm', res = 300)
grid.arrange(
  arrangeGrob(fig('Mass', 'Standardised', std_mass_fdiv_analysis_geo_plot, std_mass_fdiv_analysis_pred_plot)),
  ncol = 1
  )
dev.off()
```


```{r}
jpeg(filename(FIGURES_OUTPUT_DIR, 'figure2_nrm_mass.jpg'), width = 200, height = 220, units = 'mm', res = 300)
grid.arrange(
  arrangeGrob(fig('Mass', 'Normalised', nrm_mass_fdiv_analysis_geo_plot, nrm_mass_fdiv_analysis_pred_plot)),
  ncol = 1
  )
dev.off()
```

# Compare to spatial model

```{r}
plot_grid(
  plot_grid(
    ggdraw() + 
    draw_label(
      "Spatial Model (standardised)",
      fontface = 'bold',
      x = 0,
      hjust = 0
    ),
    ggdraw() + 
    draw_label(
      "Spatial Model (normalised)",
      fontface = 'bold',
      x = 0,
      hjust = 0
    ),
    ggdraw() + 
    draw_label(
      "Dredge Result (standardised)",
      fontface = 'bold',
      x = 0,
      hjust = 0
    ),
    ggdraw() + 
    draw_label(
      "Dredge Result (normalised)",
      fontface = 'bold',
      x = 0,
      hjust = 0
    ),
    nrow = 1
  ),
  plot_grid(
    std_mntd_analysis_pred_spatial_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-3, 3)) + ylab(''), 
    nrm_mntd_analysis_pred_spatial_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-1, 1)) + ylab(''), 
    std_mntd_analysis_pred_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-3, 3)) + ylab(''), 
    nrm_mntd_analysis_pred_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-1, 1)) + ylab(''), 
    nrow = 1
  ) + draw_label("MNTD", size = 16, angle = 90, x = 0.01, y = 0.5),
  plot_grid(
    std_gape_fdiv_analysis_pred_spatial_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-3, 3)) + ylab(''), 
    nrm_gape_fdiv_analysis_pred_spatial_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-1, 1)) + ylab(''), 
    std_gape_fdiv_analysis_pred_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-3, 3)) + ylab(''),  
    nrm_gape_fdiv_analysis_pred_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-1, 1)) + ylab(''), 
    nrow = 1
  ) + draw_label("Beak Width", size = 16, angle = 90, x = 0.01, y = 0.5),
  plot_grid(
    std_hwi_fdiv_analysis_pred_spatial_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-3, 3)) + ylab(''), 
    nrm_hwi_fdiv_analysis_pred_spatial_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-1, 1)) + ylab(''), 
    std_hwi_fdiv_analysis_pred_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-3, 3)) + ylab(''),  
    nrm_hwi_fdiv_analysis_pred_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-1, 1)) + ylab(''), 
    nrow = 1
  ) + draw_label("HWI", size = 16, angle = 90, x = 0.01, y = 0.5),
  plot_grid(
    std_mass_fdiv_analysis_pred_spatial_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-3, 3)) + ylab(''), 
    nrm_mass_fdiv_analysis_pred_spatial_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-1, 1)) + ylab(''), 
    std_mass_fdiv_analysis_pred_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-3, 3)) + ylab(''),  
    nrm_mass_fdiv_analysis_pred_plot + theme(legend.position="none") + scale_x_continuous(name = '', limits = c(-1, 1)) + ylab(''), 
    nrow = 1
  ) + draw_label("Mass", size = 16, angle = 90, x = 0.01, y = 0.5), 
  nrow = 5, rel_heights = c(1, 4, 4, 4, 4)
)
ggsave(filename(FIGURES_OUTPUT_DIR, 'process_response_vs_spatial.jpg'), width = 4000, height = 3200, units = 'px')
```



# Compare metrics against each other
```{r}
ggplot(analysis_data, aes(x = beak_width_fdiv_standard, y = mntd_standard, colour = core_realm)) + 
  geom_point() +
  ylab("MNTD") + 
  xlab("Beak Width FDiv") +
  theme_bw() + labs(color = "Realm")
```

```{r}
ggplot(analysis_data, aes(x = hwi_fdiv_standard, y = mntd_standard, colour = core_realm)) + 
  geom_point() +
  ylab("MNTD") + 
  xlab("HWI FDiv") +
  theme_bw() + labs(color = "Realm")
```

```{r}
ggplot(analysis_data, aes(x = hwi_fdiv_standard, y = beak_width_fdiv_standard, colour = core_realm)) + 
  geom_point() +
  ylab("Beak Width FDiv") + 
  xlab("HWI FDiv") +
  theme_bw() + labs(color = "Realm")
```

```{r}
mntd_fdiv_analysis = analysis_data %>% 
  dplyr::select(city_id,  mntd_standard, hwi_fdiv_standard, beak_width_fdiv_standard, mass_fdiv_standard) %>%
  left_join(community_summary) %>%
  mutate(urban_pool_perc = urban_pool_size * 100 / regional_pool_size)
mntd_fdiv_analysis
```

```{r}
ggpairs(mntd_fdiv_analysis %>% dplyr::select(mntd_standard, hwi_fdiv_standard, beak_width_fdiv_standard, mass_fdiv_standard, regional_pool_size, urban_pool_size, urban_pool_perc), columnLabels = c('MNTD', 'HWI FD', 'Bk FD', 'Mss FD', 'Region Rich.', 'Urban Rich.', '% Urban'))
ggsave(filename(FIGURES_OUTPUT_DIR, 'appendix_standarised_correlation.jpg'))
```

# Intraction term between introduced species and realm

```{r}
create_interaction_formula = function(response_var) {
  as.formula(paste(response_var, '~ core_realm * has_introduced_species'))
}
```

```{r}
interaction_type_labels = function(p) {
  explanatory_levels = all_explanatories[all_explanatories %in% p$explanatory]
  p$explanatory <- factor(p$explanatory, levels = explanatory_levels)
  
  p$type <- 'Interaction'
  p$type[p$explanatory %in% c('core_realmNearctic', 'core_realmNeotropic', 'core_realmAfrotropic', 'core_realmIndomalayan', 'core_realmAustralasia')] <- 'Realm'
  p$type[p$explanatory %in% c('has_introduced_speciesNo introduced species', 'has_introduced_speciesIntroduced species')] <- 'Introduced species'
  p
}
```

```{r}
plot_dredge_interaction_result = function(result_table, mu = 0) {
  p = result_table[result_table$model == 'full',]
  p = interaction_type_labels(p)

  ggplot(p, aes(y = explanatory, x = estimate, colour = type)) + 
    geom_line() +
    geom_point() +
    geom_errorbar(aes(xmin=estimate-error, xmax=estimate+error), width=.2,
                   position=position_dodge(0.05)) +
    scale_y_discrete(
      limits = rev(levels(p$explanatory)), 
      labels = explanatory_labels) +
    scale_colour_manual(
      values = c(realm_colour, interaction_colour, introduced_species_colour), 
      breaks = c('Realm', 'Interaction', 'Introduced species')) +
    theme_bw() +
    geom_vline(xintercept=mu, linetype="dotted") +
    guides(colour=guide_legend(title="Predictor type")) + xlab('Difference in response from 0\nhabitat filtering (< 0) and competitive interactions (> 0)\n± Standard Error') + ylab('Predictor') +
    theme(legend.justification = "top")
}
```

## MNTD

### Standardised
```{r}
std_mntd_interaction_formula = create_interaction_formula('mntd_standard')
std_mntd_interaction_result = model_average(std_mntd_interaction_formula, std_mntd_analysis_data)
std_mntd_interaction_result_table = model_summary(std_mntd_interaction_result)
std_mntd_interaction_result_table
```

```{r}
std_mntd_interaction_pred_plot = plot_dredge_interaction_result(std_mntd_interaction_result_table)
std_mntd_interaction_pred_plot
ggsave(filename(FIGURES_OUTPUT_DIR, 'figure4_std_mntd_interaction.jpg'))
```

### Normalised
```{r}
nrm_mntd_interaction_formula = create_interaction_formula('mntd_normal')
nrm_mntd_interaction_result = model_average(nrm_mntd_interaction_formula, nrm_mntd_analysis_data)
nrm_mntd_interaction_result_table = model_summary(nrm_mntd_interaction_result)
nrm_mntd_interaction_result_table
```

```{r}
nrm_mntd_interaction_pred_plot = plot_dredge_interaction_result(nrm_mntd_interaction_result_table)
nrm_mntd_interaction_pred_plot
ggsave(filename(FIGURES_OUTPUT_DIR, 'figure4_nrm_mntd_interaction.jpg'))
```


## Beak Width

### Standardised
```{r}
std_gape_interaction_formula = create_interaction_formula('beak_width_fdiv_standard')
std_gape_interaction_result = model_average(std_gape_interaction_formula, std_gape_fdiv_analysis_data)
std_gape_interaction_result_table = model_summary(std_gape_interaction_result)
std_mntd_interaction_result_table
```

```{r}
std_gape_interaction_pred_plot = plot_dredge_interaction_result(std_gape_interaction_result_table)
std_gape_interaction_pred_plot
ggsave(filename(FIGURES_OUTPUT_DIR, 'figure4_std_beak_width_interaction.jpg'))
```

### Normalised
```{r}
nrm_gape_interaction_formula = create_interaction_formula('beak_width_fdiv_normal')
nrm_gape_interaction_result = model_average(nrm_gape_interaction_formula, nrm_gape_fdiv_analysis_data)
nrm_gape_interaction_result_table = model_summary(nrm_gape_interaction_result)
nrm_gape_interaction_result_table
```

```{r}
nrm_gape_interaction_pred_plot = plot_dredge_interaction_result(nrm_gape_interaction_result_table)
nrm_gape_interaction_pred_plot
ggsave(filename(FIGURES_OUTPUT_DIR, 'figure4_nrm_beak_width_interaction.jpg'))
```

## HWI

### Standardised
```{r}
std_hwi_interaction_formula = create_interaction_formula('hwi_fdiv_standard')
std_hwi_interaction_result = model_average(std_hwi_interaction_formula, std_hwi_fdiv_analysis_data)
std_hwi_interaction_result_table = model_summary(std_hwi_interaction_result)
std_hwi_interaction_result_table
```

```{r}
std_hwi_interaction_pred_plot = plot_dredge_interaction_result(std_hwi_interaction_result_table)
std_hwi_interaction_pred_plot
ggsave(filename(FIGURES_OUTPUT_DIR, 'figure4_std_hwi_interaction.jpg'))
```

### Normalised
```{r}
nrm_hwi_interaction_formula = create_interaction_formula('hwi_fdiv_normal')
nrm_hwi_interaction_result = model_average(nrm_hwi_interaction_formula, nrm_hwi_fdiv_analysis_data)
nrm_hwi_interaction_result_table = model_summary(nrm_hwi_interaction_result)
nrm_hwi_interaction_result_table
```

```{r}
nrm_hwi_interaction_pred_plot = plot_dredge_interaction_result(nrm_hwi_interaction_result_table)
nrm_hwi_interaction_pred_plot
ggsave(filename(FIGURES_OUTPUT_DIR, 'figure4_nrm_hwi_interaction.jpg'))
```


## Mass

### Standardised
```{r}
std_mass_interaction_formula = create_interaction_formula('mass_fdiv_standard')
std_mass_interaction_result = model_average(std_mass_interaction_formula, std_mass_fdiv_analysis_data)
std_mass_interaction_result_table = model_summary(std_mass_interaction_result)
std_mass_interaction_result_table
```

```{r}
std_mass_interaction_pred_plot = plot_dredge_interaction_result(std_mass_interaction_result_table)
std_mass_interaction_pred_plot
ggsave(filename(FIGURES_OUTPUT_DIR, 'figure4_std_mass_interaction.jpg'))
```

### Normalised
```{r}
nrm_mass_interaction_formula = create_interaction_formula('mass_fdiv_normal')
nrm_mass_interaction_result = model_average(nrm_mass_interaction_formula, nrm_mass_fdiv_analysis_data)
nrm_mass_interaction_result_table = model_summary(nrm_mass_interaction_result)
nrm_mass_interaction_result_table
```

```{r}
nrm_mass_interaction_pred_plot = plot_dredge_interaction_result(nrm_mass_interaction_result_table)
nrm_mass_interaction_pred_plot
ggsave(filename(FIGURES_OUTPUT_DIR, 'figure4_nrm_mass_interaction.jpg'))
```






